diff --git a/examples/slurmkit_example/slurmkit_cellpose_segmentation.py b/examples/slurmkit_example/slurmkit_cellpose_segmentation.py
new file mode 100644
index 00000000..0ec4168b
--- /dev/null
+++ b/examples/slurmkit_example/slurmkit_cellpose_segmentation.py
@@ -0,0 +1,105 @@
+# %%
+from iohub import open_ome_zarr
+import numpy as np
+from mantis.cli import utils
+import glob
+from natsort import natsorted
+from pathlib import Path
+from slurmkit import SlurmParams, slurm_function, submit_function
+from mantis.analysis.AnalysisSettings import CellposeSegmentationSettings
+import click
+import datetime
+
+
+# %%
+input_dataset_paths = "/hpc/projects/comp.micro/mantis/2023_09_22_A549_0.52NA_illum/4.1-virutal-staining-v2/A549_MitoViewGreen_LysoTracker_W3_FOV5_1_phase_VS.zarr/0/FOV0/0"
+config_file = "/hpc/projects/comp.micro/mantis/2023_09_22_A549_0.52NA_illum/4.2-segmentation/segmentation_config.yml"
+output_data_path = (
+    "./A549_MitoViewGreen_LysoTracker_W3_FOV5_1_phase_VS_segmentation_2.zarr"
+)
+
+# sbatch and resource parameters
+partition = "gpu"
+cpus_per_task = 16
+mem_per_cpu = "18G"
+time = 300  # minutes
+simultaneous_processes_per_node = 12
+
+input_paths = [Path(path) for path in natsorted(glob.glob(input_dataset_paths))]
+output_data_path = Path(output_data_path)
+click.echo(f"in: {input_paths}, out: {output_data_path}")
+slurm_out_path = str(output_data_path.parent / f"slurm_output/segment2-%j.out")
+
+settings = utils.yaml_to_model(config_file, CellposeSegmentationSettings)
+kwargs = {"cellpose_kwargs": settings.dict()}
+print(f"Using settings: {kwargs}")
+# %%
+with open_ome_zarr(input_paths[0]) as dataset:
+    T, C, Z, Y, X = dataset.data.shape
+    channel_names = dataset.channel_names
+chunk_zyx_shape = None
+channel_names = ["label_nuc", "label_mem"]
+
+output_metadata = {
+    "shape": (T, len(channel_names), Z, Y, X),
+    "chunks": None,
+    "scale": dataset.scale,
+    "channel_names": channel_names,
+    "dtype": np.float32,
+}
+
+utils.create_empty_hcs_zarr(
+    store_path=output_data_path,
+    position_keys=[p.parts[-3:] for p in input_paths],
+    **output_metadata,
+)
+
+# prepare slurm parameters
+params = SlurmParams(
+    partition=partition,
+    gpus=1,
+    cpus_per_task=cpus_per_task,
+    mem_per_cpu=mem_per_cpu,
+    time=datetime.timedelta(minutes=time),
+    output=slurm_out_path,
+)
+
+# wrap our utils.process_single_position() function with slurmkit
+slurm_process_single_position = slurm_function(utils.process_single_position_v2)
+segmentation_func = slurm_process_single_position(
+    func=utils.nuc_mem_segmentation,
+    time_indices=list(range(T)),
+    input_channel_idx=[0, 1],  # chanesl in the input dataset
+    output_channel_idx=[0, 1],  # channels in the output dataset
+    num_processes=simultaneous_processes_per_node,
+    **kwargs,
+)
+
+# Making batches of jobs to avoid IO overload
+slurmkit_array_chunk = 20
+segment_jobs = []
+for i in range(0, len(input_paths), slurmkit_array_chunk):
+    chunk_input_paths = input_paths[i : i + slurmkit_array_chunk]
+
+    if i == 0:
+        segment_jobs = [
+            submit_function(
+                segmentation_func,
+                slurm_params=params,
+                input_data_path=in_path,
+                output_path=output_data_path,
+            )
+            for in_path in chunk_input_paths
+        ]
+
+    else:
+        segment_jobs = [
+            submit_function(
+                segmentation_func,
+                slurm_params=params,
+                input_data_path=in_path,
+                output_path=output_data_path,
+                dependencies=segment_jobs,
+            )
+            for in_path in chunk_input_paths
+        ]
diff --git a/mantis/analysis/AnalysisSettings.py b/mantis/analysis/AnalysisSettings.py
index ec469072..800c5bb5 100644
--- a/mantis/analysis/AnalysisSettings.py
+++ b/mantis/analysis/AnalysisSettings.py
@@ -98,3 +98,18 @@ def check_affine_transform_list(cls, v):
                 raise ValueError("Each element in affine_transform_list must be a 4x4 ndarray")
 
         return v
+
+
+class Segmentation(MyBaseModel):
+    diameter: int = None
+    flow_threshold: float = None
+    channels: list[int]
+    do_3D: bool = None
+
+
+class CellposeSegmentationSettings(MyBaseModel):
+    z_idx: int
+    mem_model_path: str
+    membrane_segmentation: Segmentation
+    nuc_model_path: str
+    nucleus_segmentation: Segmentation
diff --git a/mantis/analysis/settings/example_cellpose_segmentation_settings.yml b/mantis/analysis/settings/example_cellpose_segmentation_settings.yml
new file mode 100644
index 00000000..a513fc0d
--- /dev/null
+++ b/mantis/analysis/settings/example_cellpose_segmentation_settings.yml
@@ -0,0 +1,10 @@
+z_idx: 30                 # infocus slice
+mem_model_path: "cyto2"   # default "ctyto2" model works well for cells
+membrane_segmentation:
+  diameter: 200       
+  flow_threshold: 0.4
+  channels: [1, 0]  # [membrane, nucleus] membrane channel has to be first
+  do_3D: false      # 3D segmentations only
+nuc_model_path: "/hpc/projects/comp.micro/virtual_staining/models/cellpose_models/CP_20220902_NuclFL"
+nucleus_segmentation:
+  channels: [0, 0]
\ No newline at end of file
diff --git a/mantis/cli/utils.py b/mantis/cli/utils.py
index 6a73f449..533d4da1 100644
--- a/mantis/cli/utils.py
+++ b/mantis/cli/utils.py
@@ -930,6 +930,47 @@ def _check_nan_n_zeros(input_array):
     return False
 
 
+def nuc_mem_segmentation(czyx_data, **cellpose_kwargs) -> np.ndarray:
+    """Segment nuclei and membranes using cellpose"""
+
+    from cellpose import models
+
+    device = torch.device("cuda" if torch.cuda.is_available() else "cpu")
+
+    # Get the key/values under this dictionary
+    # cellpose_params = cellpose_params.get('cellpose_params', {})
+    cellpose_params = cellpose_kwargs['cellpose_kwargs']
+    Z_center_slice = slice(int(cellpose_params['z_idx']), int(cellpose_params['z_idx']) + 1)
+    Z_slice = slice(int(cellpose_params['z_idx'])-3, int(cellpose_params['z_idx']) + 3)
+    C, Z, Y, X = czyx_data.shape
+
+    czyx_data_mip = np.zeros((C, 1, Y, X))
+    for c in range(C):
+        czyx_data_mip[c, 0] = np.max(czyx_data[c , Z_slice], axis=0)
+    cyx_data = czyx_data_mip[:, 0]
+
+    if "nucleus_segmentation" in cellpose_params:
+        nuc_seg_kwargs = cellpose_params["nucleus_segmentation"]
+    if "membrane_segmentation" in cellpose_params:
+        mem_seg_kwargs = cellpose_params["membrane_segmentation"]
+
+    # Initialize Cellpose models
+    cyto_model = models.Cellpose(gpu=True, model_type=cellpose_params["mem_model_path"])
+    nuc_model = models.CellposeModel(
+        model_type=cellpose_params["nuc_model_path"], device=torch.device(device)
+    )
+
+    nuc_masks = nuc_model.eval(cyx_data[0], **nuc_seg_kwargs)[0]
+    mem_masks, _, _, _ = cyto_model.eval(cyx_data[1], **mem_seg_kwargs)
+
+    # Save
+    segmentation_stack = np.zeros_like(czyx_data_mip)
+    zyx_mask = np.stack((nuc_masks, mem_masks))
+    segmentation_stack[:, 0:1] = zyx_mask[:, np.newaxis]
+
+    return segmentation_stack
+
+
 ## NOTE WIP
 def apply_transform_to_zyx_and_save_v2(
     func,