Difference between revisions of "2009 Summer Project Week Project Segmentation of Muscoskeletal Images"

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__NOTOC__
 
__NOTOC__
 
<gallery widths="400px" perrow="6">
 
<gallery widths="400px" perrow="6">
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Image:PW2009-v3.png|[[2009_Summer_Project_Week#Projects|Projects List]]
 
Image:Knee.jpg| Knee MRI Image
 
Image:Knee.jpg| Knee MRI Image
Image:LabelMap Femur.jpg|Filled Femur Label Map.
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Image:LabelMap Femur.jpg|Filled Femur Label Map
Image:Femur Patella Tibia.jpg|EM Segmented Output.
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Image:Femur Patella Tibia.jpg|EM Segmented Output
</gallery>
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Image:Logo_simbios.gif
<gallery widths="400px" perrow="6">
 
 
Image:64 58 Affine 350 Iterations.jpeg | 64 Affine Registered on 58
 
Image:64 58 Affine 350 Iterations.jpeg | 64 Affine Registered on 58
 
Image:64 58 PipeLinedAffine Registration 200 Iterations.JPG | 64 Pipeline Affine Registered on 58
 
Image:64 58 PipeLinedAffine Registration 200 Iterations.JPG | 64 Pipeline Affine Registered on 58
 
Image:64 58 BSpline 210 Iterations.JPG | 64 Bspline Registered on 58
 
Image:64 58 BSpline 210 Iterations.JPG | 64 Bspline Registered on 58
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Image:42 Masked.jpg | Masked 42 MRI
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Image:64 Masked.jpg | Masked 64 MRI
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Image:42 BSpline To 64 DifferenceAfter.jpg | Registered Image Difference of 42 and 64
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Image:42 Registered To 64.jpg | BSpline Registered Output of 42 and 64
 
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* Harvard: Ron Kikinis
 
* Harvard: Ron Kikinis
 
* Steve Pieper, Isomics, Inc.  
 
* Steve Pieper, Isomics, Inc.  
 
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* Luis Ibanez, Kitware, Inc.
  
 
<div style="width: 27%; float: left; padding-right: 3%;">
 
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<h3>Objective</h3>
 
<h3>Objective</h3>
 
The aim of this project is to develop an automatic/semi-automatic methodology to convert whole body imaging datasets into three-dimensional models for neuromuscular biomechanics and finite element simulations.  
 
The aim of this project is to develop an automatic/semi-automatic methodology to convert whole body imaging datasets into three-dimensional models for neuromuscular biomechanics and finite element simulations.  
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Specific Aims
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* Explore the segmentation techniques for knee MRI datasets with special focus on patella, femur and tibia bones.
  
 
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<h3>Approach, Plan</h3>
 
<h3>Approach, Plan</h3>
We are working on understanding the capabilities of RegisterImage module in Slicer to apply to knee datasets.  Currently we are conducting parameter exploration studies to evaluate the sensitivity of registered images to different input parameters associated with the algorithms.  We are also developing a module to apply python ICP-based registration algorithms to directly morph a surface model to a target image geometry.
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We are working on understanding the capabilities of RegisterImage module in Slicer to apply image-to-image registration on knee datasets.  We are implementing masking algorithms to isolate specific knee bones, and perform parameter exploration to evaluate the sensitivity of registered images to input parameters.  We are exploring the feasibility of applying python ICP-based registration algorithms to directly morph a surface model to a target image geometry.
  
 
Our goals for the project week are:  
 
Our goals for the project week are:  
* Perform and evaluate results from an extensive
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* Implement an algorithm to acquire masked regions of interest from MR datasets.
parameter space exploration study of RegisterImages  
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* Perform and evaluate results from a parameter space exploration study of RegisterImages Batchmake module on knee dataset.
Batchmake module on knee dataset.
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* Resolve issues in building Python modules from slicer source code.
* Resolve issues in building Python modules from  
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* Explore possibility of model-to-image registration using existing atlas (.vtk, .stl) to a target image using Python ICP Registration module.
slicer source code.
 
* Demonstrate proof of concept on registering an
 
existing atlas (.vtk, .stl) to a target image  
 
using Python ICP Registration module.
 
 
  
 
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<h3>Progress</h3>
 
<h3>Progress</h3>
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* Investigated the masking algorithm and completed the module to mask and register images. Need to explore the parameters technique for this code.
 +
* Resolved issues in building Python
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* Cluster set up completed
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* Converted Model to masked label map volume to further a masked label volume. Now we have the problem of registering label map volume to an MRI image.
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</div>
 
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Latest revision as of 19:54, 11 April 2023

Home < 2009 Summer Project Week Project Segmentation of Muscoskeletal Images


Key Investigators

  • Stanford: Harish Doddi, Saikat Pal, Scott Delp
  • Harvard: Ron Kikinis
  • Steve Pieper, Isomics, Inc.
  • Luis Ibanez, Kitware, Inc.

Objective

The aim of this project is to develop an automatic/semi-automatic methodology to convert whole body imaging datasets into three-dimensional models for neuromuscular biomechanics and finite element simulations.

Specific Aims

  • Explore the segmentation techniques for knee MRI datasets with special focus on patella, femur and tibia bones.

Approach, Plan

We are working on understanding the capabilities of RegisterImage module in Slicer to apply image-to-image registration on knee datasets. We are implementing masking algorithms to isolate specific knee bones, and perform parameter exploration to evaluate the sensitivity of registered images to input parameters. We are exploring the feasibility of applying python ICP-based registration algorithms to directly morph a surface model to a target image geometry.

Our goals for the project week are:

  • Implement an algorithm to acquire masked regions of interest from MR datasets.
  • Perform and evaluate results from a parameter space exploration study of RegisterImages Batchmake module on knee dataset.
  • Resolve issues in building Python modules from slicer source code.
  • Explore possibility of model-to-image registration using existing atlas (.vtk, .stl) to a target image using Python ICP Registration module.

Progress

  • Investigated the masking algorithm and completed the module to mask and register images. Need to explore the parameters technique for this code.
  • Resolved issues in building Python
  • Cluster set up completed
  • Converted Model to masked label map volume to further a masked label volume. Now we have the problem of registering label map volume to an MRI image.