IstructE.cxml

<?xml version="1.0"?>
<CarboDatabase xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xmlns:xsd="http://www.w3.org/2001/XMLSchema">
  <CarboMaterials>
    <CarboMaterial>
      <Id>24105</Id>
      <Name>Concrete - Mortar/screed</Name>
      <Category>Concrete</Category>
      <Description>1:4 cement: sand mix with average UK cement mix</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2200</Density>
      <ECI>0.181116</ECI>
      <getVolumeECI>398.4552</getVolumeECI>
      <ECI_A1A3>0.149</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.009116</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2137</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Concrete : GEN 2 (12/15 MPa)</Name>
        <Description>Assumed 240 kg cementitious content per m3 concrete.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.097099819</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 100
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 14400 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 200 km
Summary: we are going to drive a Truck 10t (4 wheel) using Diesel 200 km 
A full Truck 10t (4 wheel) can carry 7.5 m³ (until max load is reached)
Or 11520 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 6 m³
The vehicle be carrying: 11520 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3 km/l = 873.333333333333 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3 km/l = 133.333333333333 gCO₂/km
873.333333333333 + 133.333333333333 = 1006.66666666667 gCO₂/km
1006.66666666667 gCO₂/km x 200 km = 201333.333333333 gCO₂/trip
201333.333333333 / 1000  = 201.333333333333 kgCO₂/trip
201.333333333333 kgCO₂/trip / 11520 kg = 0.0174768518518519 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 90000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 90000 / 250000 = 0.36 kgCO₂/km
Total emission per trip: 0.36 x 200 = 72 kgCO₂/km
Total emission per kg: 72 / 11520 = 0.00625 kgCO₂/km

Total emission per kg: 201.333333333333 / 0.00625 = 0.0237268518518519 kgCO₂/kg
</calcResult>
        <name>Truck 10t (4 wheel)</name>
        <description />
        <distanceToSite>100</distanceToSite>
        <materialDensity>2400</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Concrete Truck 6m�</name>
          <maxVolume>6</maxVolume>
          <maxLoad>14400</maxLoad>
          <kmPer>3</kmPer>
          <carboCostNew>90000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>A generic concrete truck, a truck with a capacity of 6m�. It produces about 800g of CO2 per km, Using 4.00 l/km. </description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.023726851851851853</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCo2/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.0216410861865407 kgCO₂e/m2 

[C3]  Waste Processing carbon costs: 
Waste Processing cost are set as: 0.01 kgCO₂/kg 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

Additional costs are (please specify in description otherwise leave as 0): 0 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.0216410861865407 + 0.01 + 0.007 + 0
= 0.0386410861865407 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 100
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 200 km
Summary: we are going to drive a Manual using Diesel 200 km 
A full Manual can carry 11.4583333333333 m3 (untill max load is reached)
Or 184320 kg (untill max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO2/l
We will therfore use: (2.62 CO2/l x 1000) /3.85 km/l = 680.51948051948 gCO2/km
To Produce one l of Diesel you need: 0.4 CO2/l
We will therfore use: (0.4 CO2/l x 1000) /3.85 km/l = 103.896103896104 gCO2/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO2/km
784.415584415584 gCO2/km x 200 km = 156883.116883117 gCO2/trip
156883.116883117 / 1000  = 156.883116883117 kgCO2/trip
156.883116883117 kgCO2/trip / 17600 kg = 0.008913813459268 gCO2/kg

Build cost
Each vehicle needs to be build, and therfor its cabon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO2
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO2/km
Total emission per trip: 1.12 x 200 = 224 kgCO2/km
Total emission per kg: 224 / 17600 = 0.0127272727272727 kgCO2/km

Total emission per kg: 156.883116883117 / 0.0127272727272727 = 0.0216410861865407 kgCO2/kg
</calcResult>
          <name>Manual</name>
          <description />
          <distanceToSite>100</distanceToSite>
          <materialDensity>2400</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck 22t (10 wheel)</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>A 22t truck, a truck can have a max capacity of 22t and a capacity of around 100 m�.</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.021641086186540731</value>
        </c2Properties>
        <c2Value>0.0216410861865407</c2Value>
        <c3Value>0.01</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.0386410861865407</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>24628</Id>
      <Name>Concrete UK - C40/50 - Precast</Name>
      <Category>Concrete</Category>
      <Description>No description provided</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.23027999999999999</ECI>
      <getVolumeECI>552.67199999999991</getVolumeECI>
      <ECI_A1A3>0.178</ECI_A1A3>
      <ECI_A4>0.032</ECI_A4>
      <ECI_A5>0.00228</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2438</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Precast Concrete : precast concrete beams and columns -steel reinforced with world average steel</Name>
        <Description>includes steel reinforcement, 100 kg rebar per m3 concrete. Assuming world average steel rebar. Steel rebar in Europe is considered to have a notably lower embodied carbon. Estimated from ICE Cement, Mortar, Concrete model.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.248989145</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 100
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 200 km
Summary: we are going to drive a Truck 10t (4 wheel) using Diesel 200 km 
A full Truck 10t (4 wheel) can carry 11.4583333333333 m³ (until max load is reached)
Or 184320 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 200 km = 156883.116883117 gCO₂/trip
156883.116883117 / 1000  = 156.883116883117 kgCO₂/trip
156.883116883117 kgCO₂/trip / 17600 kg = 0.008913813459268 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 200 = 224 kgCO₂/km
Total emission per kg: 224 / 17600 = 0.0127272727272727 kgCO₂/km

Total emission per kg: 156.883116883117 / 0.0127272727272727 = 0.0216410861865407 kgCO₂/kg
</calcResult>
        <name>Truck 10t (4 wheel)</name>
        <description />
        <distanceToSite>100</distanceToSite>
        <materialDensity>2400</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck 22t (10 wheel)</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>A 22t truck, a truck can have a max capacity of 22t and a capacity of around 100 m�.</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.021641086186540731</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCo2/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.0256103896103896 kgCO₂e/m2 

[C3]  Waste Processing carbon costs: 
Waste Processing cost are set as: 0.02 kgCO₂/kg 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0.249 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

Additional costs are (please specify in description otherwise leave as 0): 0 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.0256103896103896 + 0.02 + 0.007 + 0
= 0.0526103896103896 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 100
Material Density = 1500
Empty run =80

Transport Density = 1500 x 80 % 
Transport Load = 10000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 200 km
Summary: we are going to drive a Manual using Diesel 200 km 
A full Manual can carry 8.33333333333333 m3 (untill max load is reached)
Or 54000 kg (untill max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 8000 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO2/l
We will therfore use: (2.62 CO2/l x 1000) /3.85 km/l = 680.51948051948 gCO2/km
To Produce one l of Diesel you need: 0.4 CO2/l
We will therfore use: (0.4 CO2/l x 1000) /3.85 km/l = 103.896103896104 gCO2/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO2/km
784.415584415584 gCO2/km x 200 km = 156883.116883117 gCO2/trip
156883.116883117 / 1000  = 156.883116883117 kgCO2/trip
156.883116883117 kgCO2/trip / 8000 kg = 0.0196103896103896 gCO2/kg

Build cost
Each vehicle needs to be build, and therfor its cabon costs need to be included
Total carbon costs are estimated to be: 60000 kgCO2
On average this vehicle will go for: 250000 km
Per km: 60000 / 250000 = 0.24 kgCO2/km
Total emission per trip: 0.24 x 200 = 48 kgCO2/km
Total emission per kg: 48 / 8000 = 0.006 kgCO2/km

Total emission per kg: 156.883116883117 / 0.006 = 0.0256103896103896 kgCO2/kg
</calcResult>
          <name>Manual</name>
          <description />
          <distanceToSite>100</distanceToSite>
          <materialDensity>1500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck 10t (4 wheel)</name>
            <maxVolume>45</maxVolume>
            <maxLoad>10000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>60000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>A 10t truck, a truck can have a max capacity of 10t and a capacity of between 80-100 m�.</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.025610389610389604</value>
        </c2Properties>
        <c2Value>0.0256103896103896</c2Value>
        <c3Value>0.02</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0.249</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.0526103896103896</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>26024</Id>
      <Name>Concrete UK - C32/40 - 25% GGBS</Name>
      <Category>Concrete</Category>
      <Description>In situ concrete
(unreinforced)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.150579</ECI>
      <getVolumeECI>361.3896</getVolumeECI>
      <ECI_A1A3>0.12</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.007579</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCo2/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO2 per kg value based on the given parameters.


[C1] Demolition carbon cost: 
3.4kgCo2e/m2  x 1kg/m2 = 0 kgCO2/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 3.4 + 0 + 0 + 0 + 0
= 3.4 kgCO2/kg 
</calcResult>
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult />
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>29612</Id>
      <Name>Concrete UK - C25/30 - 25% GGBS</Name>
      <Category>Concrete</Category>
      <Description>In situ concrete
(unreinforced)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.129519</ECI>
      <getVolumeECI>310.8456</getVolumeECI>
      <ECI_A1A3>0.1</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.006519</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2250</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Concrete-% Cement Replacement - Blast Furnace Slag - 70% : RC 32/40 (32/40 MPa)</Name>
        <Description>Estimated from ICE Cement, Mortar, Concrete model with an estimate of realistic cement contents, not minimum cement contents. More cement is often added into a mixture, e.g. to cure quicker. Concrete has a wide variation of cement contents for the same strength class of concrete.   This adds additional uncertainty to this data by strength class. There is no substitute for finding out the actual cement content used in a mixture (not specified min cement content - actual cement content used by the contractor). The cement content for your mixture at this strength class might be a very different value than assumed here.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.063414755</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 14400 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 7.5 m³ (until max load is reached)
Or 11520 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 6 m³
The vehicle be carrying: 11520 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3 km/l = 873.333333333333 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3 km/l = 133.333333333333 gCO₂/km
873.333333333333 + 133.333333333333 = 1006.66666666667 gCO₂/km
1006.66666666667 gCO₂/km x 100 km = 100666.666666667 gCO₂/trip
100666.666666667 / 1000  = 100.666666666667 kgCO₂/trip
100.666666666667 kgCO₂/trip / 11520 kg = 0.00873842592592593 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 90000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 90000 / 250000 = 0.36 kgCO₂/km
Total emission per trip: 0.36 x 100 = 36 kgCO₂/km
Total emission per kg: 36 / 11520 = 0.003125 kgCO₂/km

Total emission per kg: 100.666666666667 / 0.003125 = 0.0118634259259259 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>2400</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Concrete Truck 6m�</name>
          <maxVolume>6</maxVolume>
          <maxLoad>14400</maxLoad>
          <kmPer>3</kmPer>
          <carboCostNew>90000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>A generic concrete truck, a truck with a capacity of 6m�. It produces about 800g of CO2 per km, Using 4.00 l/km. </description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.011863425925925927</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCo2/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.00865643447461629 kgCO₂e/m2 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.00865643447461629 + 0 + 0.007 + 0
= 0.0156564344746163 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 2400
Empty run =100

Transport Density = 2400 x 100 % 
Transport Load = 22000 x 100 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a Manual using Diesel 100 km 
A full Manual can carry 9.16666666666667 m3 (untill max load is reached)
Or 230400 kg (untill max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 22000 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO2/l
We will therfore use: (2.62 CO2/l x 1000) /3.85 km/l = 680.51948051948 gCO2/km
To Produce one l of Diesel you need: 0.4 CO2/l
We will therfore use: (0.4 CO2/l x 1000) /3.85 km/l = 103.896103896104 gCO2/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO2/km
784.415584415584 gCO2/km x 100 km = 78441.5584415584 gCO2/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO2/trip
78.4415584415584 kgCO2/trip / 22000 kg = 0.0035655253837072 gCO2/kg

Build cost
Each vehicle needs to be build, and therfor its cabon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO2
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO2/km
Total emission per trip: 1.12 x 100 = 112 kgCO2/km
Total emission per kg: 112 / 22000 = 0.00509090909090909 kgCO2/km

Total emission per kg: 78.4415584415584 / 0.00509090909090909 = 0.00865643447461629 kgCO2/kg
</calcResult>
          <name>Manual</name>
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>2400</materialDensity>
          <emptyRun>100</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.0086564344746162918</value>
        </c2Properties>
        <c2Value>0.00865643447461629</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.015656434474616288</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>25163</Id>
      <Name>Concrete UK - C20/25 - 25% GGBS</Name>
      <Category>Concrete</Category>
      <Description>In situ concrete
(unreinforced)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.122148</ECI>
      <getVolumeECI>293.15520000000004</getVolumeECI>
      <ECI_A1A3>0.093</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.006148</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2238</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Concrete-% Cement Replacement - Blast Furnace Slag - 50% : RC 32/40 (32/40 MPa)</Name>
        <Description>Estimated from ICE Cement, Mortar, Concrete model with an estimate of realistic cement contents, not minimum cement contents. More cement is often added into a mixture, e.g. to cure quicker. Concrete has a wide variation of cement contents for the same strength class of concrete.   This adds additional uncertainty to this data by strength class. There is no substitute for finding out the actual cement content used in a mixture (not specified min cement content - actual cement content used by the contractor). The cement content for your mixture at this strength class might be a very different value than assumed here.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.088802017</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCo2/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.0108205430932704 kgCO₂e/m2 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0.074 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.0108205430932704 + 0 + 0.007 + 0
= 0.0178205430932704 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a Manual using Diesel 100 km 
A full Manual can carry 11.4583333333333 m3 (untill max load is reached)
Or 184320 kg (untill max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO2/l
We will therfore use: (2.62 CO2/l x 1000) /3.85 km/l = 680.51948051948 gCO2/km
To Produce one l of Diesel you need: 0.4 CO2/l
We will therfore use: (0.4 CO2/l x 1000) /3.85 km/l = 103.896103896104 gCO2/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO2/km
784.415584415584 gCO2/km x 100 km = 78441.5584415584 gCO2/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO2/trip
78.4415584415584 kgCO2/trip / 17600 kg = 0.004456906729634 gCO2/kg

Build cost
Each vehicle needs to be build, and therfor its cabon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO2
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO2/km
Total emission per trip: 1.12 x 100 = 112 kgCO2/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO2/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO2/kg
</calcResult>
          <name>Manual</name>
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>2400</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>A generic truck, a truck with a capacity of around 22t and a capacity of between 80-100 m�. It produces about 680g of CO2 per km, Using 3.80 l/km. </description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0.0108205430932704</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0.074</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.0178205430932704</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>25152</Id>
      <Name>Concrete UK - C16/20 - 25% GGBS</Name>
      <Category>Concrete</Category>
      <Description>In situ concrete
(unreinforced)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.11583</ECI>
      <getVolumeECI>277.992</getVolumeECI>
      <ECI_A1A3>0.087</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.00583</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2240</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Concrete-% Cement Replacement - Blast Furnace Slag - 50% : RC 40/50 (40/50 MPa)</Name>
        <Description>Estimated from ICE Cement, Mortar, Concrete model with an estimate of realistic cement contents, not minimum cement contents. More cement is often added into a mixture, e.g. to cure quicker. Concrete has a wide variation of cement contents for the same strength class of concrete.   This adds additional uncertainty to this data by strength class. There is no substitute for finding out the actual cement content used in a mixture (not specified min cement content - actual cement content used by the contractor). The cement content for your mixture at this strength class might be a very different value than assumed here.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.101547896</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCo2/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.00865643447461629 kgCO₂e/m2 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.00865643447461629 + 0 + 0.007 + 0
= 0.0156564344746163 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult />
          <name>Manual</name>
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>2400</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>A generic truck, a truck with a capacity of around 22t and a capacity of between 80-100 m�. It produces about 680g of CO2 per km, Using 3.80 l/km. </description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0.00865643447461629</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.015656434474616288</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>23515</Id>
      <Name>Concrete UK - C40/50 - 25% GGBS</Name>
      <Category>Concrete</Category>
      <Description>In situ concrete
(unreinforced)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.16953300000000002</ECI>
      <getVolumeECI>406.8792</getVolumeECI>
      <ECI_A1A3>0.138</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.008533</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2252</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Concrete-% Cement Replacement - Blast Furnace Slag - 70% : RC 40/50 (40/50 MPa)</Name>
        <Description>Estimated from ICE Cement, Mortar, Concrete model with an estimate of realistic cement contents, not minimum cement contents. More cement is often added into a mixture, e.g. to cure quicker. Concrete has a wide variation of cement contents for the same strength class of concrete.   This adds additional uncertainty to this data by strength class. There is no substitute for finding out the actual cement content used in a mixture (not specified min cement content - actual cement content used by the contractor). The cement content for your mixture at this strength class might be a very different value than assumed here.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.071890992</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 14400 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 7.5 m³ (until max load is reached)
Or 11520 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 6 m³
The vehicle be carrying: 11520 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3 km/l = 873.333333333333 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3 km/l = 133.333333333333 gCO₂/km
873.333333333333 + 133.333333333333 = 1006.66666666667 gCO₂/km
1006.66666666667 gCO₂/km x 100 km = 100666.666666667 gCO₂/trip
100666.666666667 / 1000  = 100.666666666667 kgCO₂/trip
100.666666666667 kgCO₂/trip / 11520 kg = 0.00873842592592593 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 90000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 90000 / 250000 = 0.36 kgCO₂/km
Total emission per trip: 0.36 x 100 = 36 kgCO₂/km
Total emission per kg: 36 / 11520 = 0.003125 kgCO₂/km

Total emission per kg: 100.666666666667 / 0.003125 = 0.0118634259259259 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>2400</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Concrete Truck 6m�</name>
          <maxVolume>6</maxVolume>
          <maxLoad>14400</maxLoad>
          <kmPer>3</kmPer>
          <carboCostNew>90000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>A generic concrete truck, a truck with a capacity of 6m�. It produces about 800g of CO2 per km, Using 4.00 l/km. </description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.011863425925925927</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCO₂/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.00865643447461629 kgCO₂e/m2 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.00865643447461629 + 0 + 0.007 + 0
= 0.0156564344746163 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult />
          <name>Manual</name>
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>2400</materialDensity>
          <emptyRun>100</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.0086564344746162918</value>
        </c2Properties>
        <c2Value>0.00865643447461629</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.015656434474616288</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>24844</Id>
      <Name>Concrete Global - C32/40</Name>
      <Category>Concrete</Category>
      <Description>Global Average
(excludes China)
C32/40</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.251</ECI>
      <getVolumeECI>602.4</getVolumeECI>
      <ECI_A1A3>0.175</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.053</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>22420</Id>
      <Name>Concrete UK - C40/50 - Precast 150mm Hollowcore</Name>
      <Category>Concrete</Category>
      <Description>150mm reinforced hollow
core slabs: British Precast
Flooring Federation average</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2000</Density>
      <ECI>0.21816</ECI>
      <getVolumeECI>436.32</getVolumeECI>
      <ECI_A1A3>0.166</ECI_A1A3>
      <ECI_A4>0.032</ECI_A4>
      <ECI_A5>0.00216</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2438</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Precast Concrete : precast concrete beams and columns -steel reinforced with world average steel</Name>
        <Description>includes steel reinforcement, 100 kg rebar per m3 concrete. Assuming world average steel rebar. Steel rebar in Europe is considered to have a notably lower embodied carbon. Estimated from ICE Cement, Mortar, Concrete model.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.248989145</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 100
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 200 km
Summary: we are going to drive a Truck 10t (4 wheel) using Diesel 200 km 
A full Truck 10t (4 wheel) can carry 11.4583333333333 m³ (until max load is reached)
Or 184320 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 200 km = 156883.116883117 gCO₂/trip
156883.116883117 / 1000  = 156.883116883117 kgCO₂/trip
156.883116883117 kgCO₂/trip / 17600 kg = 0.008913813459268 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 200 = 224 kgCO₂/km
Total emission per kg: 224 / 17600 = 0.0127272727272727 kgCO₂/km

Total emission per kg: 156.883116883117 / 0.0127272727272727 = 0.0216410861865407 kgCO₂/kg
</calcResult>
        <name>Truck 10t (4 wheel)</name>
        <description />
        <distanceToSite>100</distanceToSite>
        <materialDensity>2400</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck 22t (10 wheel)</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>A 22t truck, a truck can have a max capacity of 22t and a capacity of around 100 m�.</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.021641086186540731</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name>Manual</name>
          <description />
          <distanceToSite>100</distanceToSite>
          <materialDensity>1500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck 10t (4 wheel)</name>
            <maxVolume>45</maxVolume>
            <maxLoad>10000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>60000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>A 10t truck, a truck can have a max capacity of 10t and a capacity of between 80-100 m�.</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.025610389610389604</value>
        </c2Properties>
        <c2Value>0.0256103896103896</c2Value>
        <c3Value>0.02</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0.249</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.0526103896103896</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>24550</Id>
      <Name>Steel UK - Reinforcement</Name>
      <Category>Steel</Category>
      <Description>UK
CARES sector average (EAF
production)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>0.76</ECI>
      <getVolumeECI>5966</getVolumeECI>
      <ECI_A1A3>0.76</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>23738</Id>
      <Name>Steel Global - Reinforcement</Name>
      <Category>Steel</Category>
      <Description>UK
CARES sector average (EAF
production)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>1.96</ECI>
      <getVolumeECI>15386</getVolumeECI>
      <ECI_A1A3>1.96</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>27935</Id>
      <Name>Steel UK - Structural Sections and Plate</Name>
      <Category>Steel</Category>
      <Description>UK
Rolled open sections</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>1.74</ECI>
      <getVolumeECI>13659</getVolumeECI>
      <ECI_A1A3>1.74</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>28277</Id>
      <Name>Steel Global - Structural Sections and Plate</Name>
      <Category>Steel</Category>
      <Description>Global
Rolled open sections</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>1.58</ECI>
      <getVolumeECI>12403</getVolumeECI>
      <ECI_A1A3>1.58</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>29470</Id>
      <Name>Steel UK &amp; Global - Structural Closed Sections</Name>
      <Category>Steel</Category>
      <Description>UK &amp; Global
Rolled closed sections</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>2.5</ECI>
      <getVolumeECI>19625</getVolumeECI>
      <ECI_A1A3>2.5</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>21997</Id>
      <Name>Steel UK &amp; Global - Structural Plate</Name>
      <Category>Steel</Category>
      <Description>UK &amp; Global
Plates</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>2.45</ECI>
      <getVolumeECI>19232.5</getVolumeECI>
      <ECI_A1A3>2.45</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>24056</Id>
      <Name>Steel UK - TATA Comflor (Average)</Name>
      <Category>Steel</Category>
      <Description> TATA Comflor</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>2.83</ECI>
      <getVolumeECI>22215.5</getVolumeECI>
      <ECI_A1A3>2.83</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>26117</Id>
      <Name>Steel Global - Galvanised Steel Plates</Name>
      <Category>Steel</Category>
      <Description>Global
Hot dip galvanised steel</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>7850</Density>
      <ECI>2.67</ECI>
      <getVolumeECI>20959.5</getVolumeECI>
      <ECI_A1A3>2.67</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>29489</Id>
      <Name>UK - Precast Lightweight Concrete Blocks</Name>
      <Category>Blocks and Bricks</Category>
      <Description>UK
Lightweight AAC blocks for
building envelope (600kg/m³)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>1500</Density>
      <ECI>0.28</ECI>
      <getVolumeECI>420.00000000000006</getVolumeECI>
      <ECI_A1A3>0.28</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCO₂/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 50 % = 0.0065 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 50 % = 0.0025 kgCO₂/kg 

[C4] total cost is: 0 + 0.0065 + 0.0025 = 0.009 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0 + 0 + 0.009 + 0
= 0.009 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>24009</Id>
      <Name>UK - Precast Dense Concrete Blocks</Name>
      <Category>Blocks and Bricks</Category>
      <Description>UK
Dense blocks for other uses</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.093</ECI>
      <getVolumeECI>223.2</getVolumeECI>
      <ECI_A1A3>0.093</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>23698</Id>
      <Name>Brick UK BDA Generic Brick</Name>
      <Category>Blocks and Bricks</Category>
      <Description>Engineering bricks
</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2000</Density>
      <ECI>0.213</ECI>
      <getVolumeECI>426</getVolumeECI>
      <ECI_A1A3>0.213</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>23735</Id>
      <Name>Stone - Granite</Name>
      <Category>Blocks and Bricks</Category>
      <Description>Generic Granite</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2500</Density>
      <ECI>0.093</ECI>
      <getVolumeECI>232.5</getVolumeECI>
      <ECI_A1A3>0.093</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>21085</Id>
      <Name>Stone - Limestone</Name>
      <Category>Blocks and Bricks</Category>
      <Description>Generic Limestone</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2500</Density>
      <ECI>0.09</ECI>
      <getVolumeECI>225</getVolumeECI>
      <ECI_A1A3>0.09</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>20203</Id>
      <Name>Stone - Sandstone</Name>
      <Category>Blocks and Bricks</Category>
      <Description>Generic Limestone</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2500</Density>
      <ECI>0.06</ECI>
      <getVolumeECI>150</getVolumeECI>
      <ECI_A1A3>0.06</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>24080</Id>
      <Name>Timber Global - Softwood</Name>
      <Category>Timber</Category>
      <Description>Timber - Global
Studwork/framing/flooring</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.263</ECI>
      <getVolumeECI>126.24000000000001</getVolumeECI>
      <ECI_A1A3>0.263</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCO₂/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 50 % = 0.0065 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 50 % = 0.0025 kgCO₂/kg 

[C4] total cost is: 0 + 0.0065 + 0.0025 = 0.009 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0 + 0 + 0.009 + 0
= 0.009 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>22528</Id>
      <Name>Timber UK and Europe - CLT</Name>
      <Category>Timber</Category>
      <Description>Manufactured structural timber - UK and Europe
CLT, 100% FSC/PEFC</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.25</ECI>
      <getVolumeECI>120</getVolumeECI>
      <ECI_A1A3>0.25</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>28547</Id>
      <Name>Timber Global - CLT</Name>
      <Category>Timber</Category>
      <Description>Manufactured structural timber - Global
CLT, 100% FSC/PEFC
</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>500</Density>
      <ECI>0.25</ECI>
      <getVolumeECI>125</getVolumeECI>
      <ECI_A1A3>0.25</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>21765</Id>
      <Name>Timber UK and Europe - Glulam</Name>
      <Category>Timber</Category>
      <Description>Manufactured structural timber - UK and Europe
Glulam, 100% FSC/PEFC</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.28</ECI>
      <getVolumeECI>134.4</getVolumeECI>
      <ECI_A1A3>0.28</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>23180</Id>
      <Name>Timber Global - Glulam</Name>
      <Category>Timber</Category>
      <Description>Manufactured structural timber - Global
Glulam, 100% FSC/PEFC</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.512</ECI>
      <getVolumeECI>245.76</getVolumeECI>
      <ECI_A1A3>0.512</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>26790</Id>
      <Name>Timber Global - LVL</Name>
      <Category>Timber</Category>
      <Description>Manufactured structural timber - Global
LVL, 100% FSC/PEFC</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.39</ECI>
      <getVolumeECI>187.20000000000002</getVolumeECI>
      <ECI_A1A3>0.39</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>22765</Id>
      <Name>Timber Global - Plywood</Name>
      <Category>Timber</Category>
      <Description>Global
Formwork plywood, 100%
FSC/PEFC</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.681</ECI>
      <getVolumeECI>326.88</getVolumeECI>
      <ECI_A1A3>0.681</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>26130</Id>
      <Name>Timber Global - OSB</Name>
      <Category>Timber</Category>
      <Description>Global
OSB, 100% FSC/PEFC</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>480</Density>
      <ECI>0.455</ECI>
      <getVolumeECI>218.4</getVolumeECI>
      <ECI_A1A3>0.455</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>28696</Id>
      <Name>Aluminium EU - Sheet - 31% Recycled</Name>
      <Category>Other</Category>
      <Description>European consumption
31% recycled content</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2170</Density>
      <ECI>6.58</ECI>
      <getVolumeECI>14278.6</getVolumeECI>
      <ECI_A1A3>6.58</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>28017</Id>
      <Name>Aluminium Global - Sheet - 31% Recycled</Name>
      <Category>Other</Category>
      <Description>Global consumption
31% recycled content</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2170</Density>
      <ECI>13</ECI>
      <getVolumeECI>28210</getVolumeECI>
      <ECI_A1A3>13</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>29146</Id>
      <Name>Aluminium EU - Profiles - 31% Recycled</Name>
      <Category>Other</Category>
      <Description>European consumption
31% recycled content</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2170</Density>
      <ECI>6.83</ECI>
      <getVolumeECI>14821.1</getVolumeECI>
      <ECI_A1A3>6.83</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>22095</Id>
      <Name>Aluminium Global - Profiles - 31% Recycled</Name>
      <Category>Other</Category>
      <Description>Global consumption
31% recycled content</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2170</Density>
      <ECI>13.2</ECI>
      <getVolumeECI>28644</getVolumeECI>
      <ECI_A1A3>13.2</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>28676</Id>
      <Name>Glass - General</Name>
      <Category>Other</Category>
      <Description>Generic Glass</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2500</Density>
      <ECI>1.44</ECI>
      <getVolumeECI>3600</getVolumeECI>
      <ECI_A1A3>1.44</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>21956</Id>
      <Name>Glass - Toughened</Name>
      <Category>Other</Category>
      <Description>Toughened Glass</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2500</Density>
      <ECI>1.67</ECI>
      <getVolumeECI>4175</getVolumeECI>
      <ECI_A1A3>1.67</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>26421</Id>
      <Name>Plasterboard</Name>
      <Category>Other</Category>
      <Description>Partitioning/ceilings
Min. 60% recycled content</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>1000</Density>
      <ECI>0.39</ECI>
      <getVolumeECI>390</getVolumeECI>
      <ECI_A1A3>0.39</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>1</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>3.4</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>0</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName />
        <c4landfP>0</c4landfP>
        <c4landfV>0</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>0</c4reUseP>
        <c4reUseV>0</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>3.4</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>false</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>20696</Id>
      <Name>Intumescent Coating - Steel</Name>
      <Category>Other</Category>
      <Description>Paint coating for steel
Amotherm Steel WB</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>3000</Density>
      <ECI>2.399</ECI>
      <getVolumeECI>7197</getVolumeECI>
      <ECI_A1A3>2.399</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0kgCO₂/kg
</calcResult>
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 50 % = 0.0065 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 50 % = 0.0025 kgCO₂/kg 

[C4] total cost is: 0 + 0.0065 + 0.0025 = 0.009 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0 + 0 + 0.009 + 0
= 0.009 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>29669</Id>
      <Name>Intumescent Coating - Concrete</Name>
      <Category>Other</Category>
      <Description>Paint coating for concrete
Amotherm Concrete WB</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>3000</Density>
      <ECI>2.366</ECI>
      <getVolumeECI>7098</getVolumeECI>
      <ECI_A1A3>2.366</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>25881</Id>
      <Name>Cementitous Coatings</Name>
      <Category>Other</Category>
      <Description>Cementitious spray
Isolatek International product average</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2000</Density>
      <ECI>0.725</ECI>
      <getVolumeECI>1450</getVolumeECI>
      <ECI_A1A3>0.725</ECI_A1A3>
      <ECI_A4>0</ECI_A4>
      <ECI_A5>0</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>0</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>0</Id>
        <Category />
        <Name />
        <Description />
        <Density>0</Density>
        <ECI_A1A3>0</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>500</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>0.010820543093270366</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult />
        <name />
        <value>0</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult />
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>3.4</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 500
Empty run =80

Transport Density = 500 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry 55 m³ (until max load is reached)
Or 38400 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name />
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>500</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>An unspecified Vehicle</description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Generic</c4DisposalName>
        <c4landfP>50</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>50</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.009</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName>Sequestration</propertyName>
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
    <CarboMaterial>
      <Id>28614</Id>
      <Name>Concrete UK - C16/20 - (0% SCM)</Name>
      <Category>Concrete</Category>
      <Description>In situ concrete
(unreinforced)</Description>
      <EPDurl>https://www.istructe.org/resources/guidance/how-to-calculate-embodied-carbon/</EPDurl>
      <Density>2400</Density>
      <ECI>0.143208</ECI>
      <getVolumeECI>343.6992</getVolumeECI>
      <ECI_A1A3>0.113</ECI_A1A3>
      <ECI_A4>0.005</ECI_A4>
      <ECI_A5>0.007208</ECI_A5>
      <ECI_B1B5>0</ECI_B1B5>
      <ECI_C1C4>0.018</ECI_C1C4>
      <ECI_D>0</ECI_D>
      <ECI_Seq>0</ECI_Seq>
      <ECI_Mix>0</ECI_Mix>
      <WasteFactor>5</WasteFactor>
      <isLocked>false</isLocked>
      <materialA1A3Properties>
        <Id>2240</Id>
        <Group>ECI</Group>
        <Category>Concrete</Category>
        <Name>Concrete-% Cement Replacement - Blast Furnace Slag - 50% : RC 40/50 (40/50 MPa)</Name>
        <Description>Estimated from ICE Cement, Mortar, Concrete model with an estimate of realistic cement contents, not minimum cement contents. More cement is often added into a mixture, e.g. to cure quicker. Concrete has a wide variation of cement contents for the same strength class of concrete.   This adds additional uncertainty to this data by strength class. There is no substitute for finding out the actual cement content used in a mixture (not specified min cement content - actual cement content used by the contractor). The cement content for your mixture at this strength class might be a very different value than assumed here.</Description>
        <Density>2400</Density>
        <ECI_A1A3>0.101547896</ECI_A1A3>
      </materialA1A3Properties>
      <materiaA4Properties>
        <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 0
Empty run =80

Transport Density = 0 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a  using Diesel 100 km 
A full  can carry ∞ m³ (until max load is reached)
Or 0 kg (until max volume is reached)
We will use the volume capacity as a maximum threshold
The vehicle will be fully loaded using: 96 m³
The vehicle be carrying: 0 kg/trip

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 0 kg = ∞ gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 0 = ∞ kgCO₂/km

Total emission per kg: 78.4415584415584 / ∞ = ∞ kgCO₂/kg
</calcResult>
        <name />
        <description />
        <distanceToSite>50</distanceToSite>
        <materialDensity>0</materialDensity>
        <emptyRun>80</emptyRun>
        <emptyReturn>true</emptyReturn>
        <vehicleSettings>
          <name>Truck</name>
          <maxVolume>96</maxVolume>
          <maxLoad>22000</maxLoad>
          <kmPer>3.85</kmPer>
          <carboCostNew>280000</carboCostNew>
          <totalDistance>250000</totalDistance>
          <defaultFuel>Diesel</defaultFuel>
          <description>An unspecified Vehicle</description>
        </vehicleSettings>
        <vehicleFuel>
          <name>Diesel</name>
          <emission>2.62</emission>
          <production>0.4</production>
          <unit>l</unit>
        </vehicleFuel>
        <value>INF</value>
      </materiaA4Properties>
      <materialA5Properties>
        <calcResult>A5 calculation to be implemented 
Set Value by user as: 0.007208kgCO₂/kg
</calcResult>
        <name>Calculated</name>
        <value>0.007208</value>
      </materialA5Properties>
      <materialC1C4Properties>
        <calcResult>This calculation create a CO₂ per kg value based on the given parameters.


[C2] Transport carbon cost: 
0.005 kgCO₂e/m2 

[C4] Disposal carbon costs: 
[C4] Incinerator costs is: 0 x 0 % = 0 kgCO₂/kg 
[C4] Landfill costs is: 0.013 x 25 % = 0.00325 kgCO₂/kg 
[C4] Re-use costs is: 0.005 x 75 % = 0.00375 kgCO₂/kg 

[C4] total cost is: 0 + 0.00325 + 0.00375 = 0.007 kgCO₂/kg 

[C4] Disposal carbon costs: 
Total costs are: [C1] + [C2] + [C3] + [C4] + [Additional]
Total costs are: 0 + 0.005 + 0 + 0.007 + 0
= 0.012 kgCO₂/kg 
</calcResult>
        <propertyName />
        <c1density>0</c1density>
        <c1BaseValue>0</c1BaseValue>
        <c1Value>0</c1Value>
        <c2Properties>
          <calcResult>Calculation to get transport value: 
Distance to site = 50
Material Density = 2400
Empty run =80

Transport Density = 2400 x 80 % 
Transport Load = 22000 x 80 % 
The vehicle WILL return to its starting point empty
The total distance = 100 km
Summary: we are going to drive a Manual using Diesel 100 km 
A full Manual can carry 11.4583333333333 m³ (until max load is reached)
Or 184320 kg (until max volume is reached)
We will use the load capacity as a maximum threshold
The vehicle will be fully loaded using: 17600 kg

Vehicle Fuel Consumption
The vehicle consumes: 3.85 l/km
Carbon contents of Diesel = 2.62 CO₂/l
We will therefore use: (2.62 CO₂/l x 1000) /3.85 km/l = 680.51948051948 gCO₂/km
To Produce one l of Diesel you need: 0.4 CO₂/l
We will therefore use: (0.4 CO₂/l x 1000) /3.85 km/l = 103.896103896104 gCO₂/km
680.51948051948 + 103.896103896104 = 784.415584415584 gCO₂/km
784.415584415584 gCO₂/km x 100 km = 78441.5584415584 gCO₂/trip
78441.5584415584 / 1000  = 78.4415584415584 kgCO₂/trip
78.4415584415584 kgCO₂/trip / 17600 kg = 0.004456906729634 gCO₂/kg

Build cost
Each vehicle needs to be build, and therefore its carbon costs need to be included
Total carbon costs are estimated to be: 280000 kgCO₂
On average this vehicle will go for: 250000 km
Per km: 280000 / 250000 = 1.12 kgCO₂/km
Total emission per trip: 1.12 x 100 = 112 kgCO₂/km
Total emission per kg: 112 / 17600 = 0.00636363636363636 kgCO₂/km

Total emission per kg: 78.4415584415584 / 0.00636363636363636 = 0.0108205430932704 kgCO₂/kg
</calcResult>
          <name>Manual</name>
          <description />
          <distanceToSite>50</distanceToSite>
          <materialDensity>2400</materialDensity>
          <emptyRun>80</emptyRun>
          <emptyReturn>true</emptyReturn>
          <vehicleSettings>
            <name>Truck</name>
            <maxVolume>96</maxVolume>
            <maxLoad>22000</maxLoad>
            <kmPer>3.85</kmPer>
            <carboCostNew>280000</carboCostNew>
            <totalDistance>250000</totalDistance>
            <defaultFuel>Diesel</defaultFuel>
            <description>A generic truck, a truck with a capacity of around 22t and a capacity of between 80-100 m�. It produces about 680g of CO2 per km, Using 3.80 l/km. </description>
          </vehicleSettings>
          <vehicleFuel>
            <name>Diesel</name>
            <emission>2.62</emission>
            <production>0.4</production>
            <unit>l</unit>
          </vehicleFuel>
          <value>0.010820543093270366</value>
        </c2Properties>
        <c2Value>0.005</c2Value>
        <c3Value>0</c3Value>
        <c4DisposalName>Concrete</c4DisposalName>
        <c4landfP>25</c4landfP>
        <c4landfV>0.013</c4landfV>
        <c4lanfResult>0</c4lanfResult>
        <c4incfP>0</c4incfP>
        <c4incfV>0</c4incfV>
        <c4incResult>0</c4incResult>
        <c4reUseP>75</c4reUseP>
        <c4reUseV>0.005</c4reUseV>
        <c4reUseResult>0</c4reUseResult>
        <other>0</other>
        <value>0.012</value>
      </materialC1C4Properties>
      <materialSeqProperties>
        <propertyName />
        <value>0</value>
        <sequestrationPeriod>40</sequestrationPeriod>
        <comment />
      </materialSeqProperties>
      <materialDProperties>
        <name />
        <value>0</value>
        <calcResult />
      </materialDProperties>
      <ECI_A1A3_Override>true</ECI_A1A3_Override>
      <ECI_A4_Override>true</ECI_A4_Override>
      <ECI_A5_Override>true</ECI_A5_Override>
      <ECI_C1C4_Override>true</ECI_C1C4_Override>
      <ECI_D_Override>true</ECI_D_Override>
      <ECI_Seq_Override>true</ECI_Seq_Override>
      <ECI_Mix_Info />
    </CarboMaterial>
  </CarboMaterials>
</CarboDatabase>