diff --git a/PlayWrightTest/testbook/_config.yml b/PlayWrightTest/testbook/_config.yml index 191f651..f099a5a 100644 --- a/PlayWrightTest/testbook/_config.yml +++ b/PlayWrightTest/testbook/_config.yml @@ -1,5 +1,5 @@ Title: Example Maglev Assignment -author: TODO, built with TeachBooks and Jupyter Book, CC BY 4.0 #add your own name here +author: CyberForce, built with TeachBooks and Jupyter Book, CC BY 4.0 #add your own name here execute: execute_notebooks: "off" diff --git a/README.md b/README.md index 2d34287..e843173 100644 --- a/README.md +++ b/README.md @@ -2,7 +2,7 @@ CyberBook is a collection of open-source extensions for building interactive educational books. It is built on top of Teachbooks, which itself extends Jupyter Book. -This repository serves as an example book for a [Maglev](https://github.com/Hansolini/Take-home-Maglev-lab) assignment, demonstrating how to build and customize interactive books. +This repository serves as a book for a [Maglev](https://github.com/Hansolini/Take-home-Maglev-lab) assignment in the course TTK4111, demonstrating how to build and customize interactive books. ## Features diff --git a/book/_config.yml b/book/_config.yml index c7d8fc2..86f0a29 100644 --- a/book/_config.yml +++ b/book/_config.yml @@ -1,5 +1,5 @@ Title: Example Maglev Assignment -author: TODO, built with TeachBooks and Jupyter Book, CC BY 4.0 #add your own name here +author: Cyber Force, built with TeachBooks and Jupyter Book, CC BY 4.0 #add your own name here execute: execute_notebooks: "off" diff --git a/book/chapters/controller_design.ipynb b/book/chapters/controller_design.ipynb index 3e9addb..bde87af 100644 --- a/book/chapters/controller_design.ipynb +++ b/book/chapters/controller_design.ipynb @@ -181,7 +181,7 @@ " \"questions\": [\n", " {\n", " \"type\": \"MULTIPLE_CHOICE\",\n", - " \"body\": \"Which of the following controller behaviors is **most likely** to cause a large overshoot?\",\n", + " \"body\": \"Which of the following controller behaviors is most likely to cause a large overshoot?\",\n", " \"answers\": [\n", " \"Very low \\\\( K_p \\\\), low \\\\( K_d \\\\)\",\n", " \"High \\\\( K_p \\\\), low \\\\( K_d \\\\)\",\n", @@ -193,7 +193,7 @@ " },\n", " {\n", " \"type\": \"MULTIPLE_CHOICE\",\n", - " \"body\": \"What is most likely to **reduce settling time** without increasing overshoot too much?\",\n", + " \"body\": \"What is most likely to reduce settling time without increasing overshoot too much?\",\n", " \"answers\": [\n", " \"Decrease both \\\\( K_p \\\\) and \\\\( K_d \\\\)\",\n", " \"Increase \\\\( K_p \\\\) and \\\\( K_d \\\\) proportionally\",\n", diff --git a/book/chapters/equilibrium_analysis.ipynb b/book/chapters/equilibrium_analysis.ipynb index f2150a1..9a69392 100644 --- a/book/chapters/equilibrium_analysis.ipynb +++ b/book/chapters/equilibrium_analysis.ipynb @@ -115,7 +115,7 @@ " \"questions\": [\n", " {\n", " \"type\": \"MULTIPLE_CHOICE\",\n", - " \"body\": \"When simulating the system and varying \\\\( z \\\\), which position initially corresponds to a **stable** equilibrium point?\",\n", + " \"body\": \"When simulating the system and varying \\\\( z \\\\), which position initially corresponds to a stable equilibrium point?\",\n", " \"answers\": [\n", " \"Left\",\n", " \"Right\"\n", @@ -184,7 +184,7 @@ " ],\n", " \"additional_material\": {\n", " \"type\": \"TEXT\",\n", - " \"body\": \"A stable equilibrium occurs when a small disturbance causes a restoring force. This is related to the **slope** of the force curve: if the magnetic force increases when the magnet moves slightly down (opposing gravity), the equilibrium is stable. However, keep in mind that this figure only illustrates that the equilibrium is stable in the z-direction; the levitating magnet may still be unstable in the lateral and rotational directions.\"\n", + " \"body\": \"A stable equilibrium occurs when a small disturbance causes a restoring force. This is related to the slope of the force curve: if the magnetic force increases when the magnet moves slightly down (opposing gravity), the equilibrium is stable. However, keep in mind that this figure only illustrates that the equilibrium is stable in the z-direction; the levitating magnet may still be unstable in the lateral and rotational directions.\"\n", " }\n", "}\n", "\n", diff --git a/book/chapters/robustness_and_model_validation.ipynb b/book/chapters/robustness_and_model_validation.ipynb index 530c42c..29fba56 100644 --- a/book/chapters/robustness_and_model_validation.ipynb +++ b/book/chapters/robustness_and_model_validation.ipynb @@ -121,7 +121,7 @@ " },\n", " {\n", " \"type\": \"MULTIPLE_CHOICE\",\n", - " \"body\": \"What best describes the region of attraction for the **linearized model**?\",\n", + " \"body\": \"What best describes the region of attraction for the linearized model?\",\n", " \"answers\": [\n", " \"It includes all possible initial states.\",\n", " \"It is small and only valid close to the equilibrium.\",\n", diff --git a/book/intro.md b/book/intro.md index 7ecadc5..038a36f 100644 --- a/book/intro.md +++ b/book/intro.md @@ -1,4 +1,4 @@ -# Maglev Example Assignment +# Maglev Assignment Welcome to the Maglev Control System example assignment, hosted in this Jupyter book.