Difference between revisions of "Documentation/Nightly/Extensions/BrainTissuesExtension"

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[[Image:BrainTissuesExtension-logo.png|left]]
 
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Anomalous diffusion processes (ADP) are mathematically denoted by a power law in the Fokker-Planck equation, leading to the generalized form. There are several generalizations of the Fokker-Plank equation, which should give many different partial differential equations (PDEs). Here we adopt only the so-called porous media form, allowing the super-diffusive and the subdiffusive processes. <ref>Tsallis, C. (2009). Introduction to Nonextensive Statistical Mechanics: Approaching a Complex World. Springer.</ref> ...
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Brain tissue segmentation plays an important role in many different image processing steps, which offers a possibility to study different neurodegenerative diseases or also in more specific tasks such as in brain structural quantitative morphological parameters such as brain atrophy. For this reason, brain tissue segmentation procedures have been intensively studied in recent years. This extension aims to offer a fast, robust and simple solutions for brain tissue segmentation, in which specific segmentation tasks are separated into different modules. See the modules list below to find the most appropriate tool for your study.  
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{{documentation/{{documentation/version}}/extension-section|Modules}}
 
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*[[Documentation/{{documentation/version}}/Modules/|... Filter]]
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* '''General purpose segmentation method''': [[Documentation/{{documentation/version}}/Modules/BrainStructuresSegmenter|Brain Structures Segmenter]]
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* '''Clustering classification based on k-Means algorithm''': [[Documentation/{{documentation/version}}/Modules/BasicBrainTissues|Basic Brain Tissues (k-Means)]]
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* '''Multiple logistic classification algorithm''': [[Documentation/{{documentation/version}}/Modules/BrainLogisticSegmentation|Brain Logistic Segmentation (BLS)]]
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'''NOTE''': The [[Documentation/{{documentation/version}}/Modules/BrainStructuresSegmenter|Brain Structures Segmenter]] is the main module for a general brain segmentation approach, which uses a predefined image processing pipeline in order to result in a smoothed tissue mask. See the module's documentation for more details.  
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Each segmentation approach is related to a specific algorithm, which is explained in more details in the pulications placed in References section. Please, cite the proper algorithm if any of these methods were used in a scientific study.
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{{documentation/{{documentation/version}}/module-section|Use Cases}}
 
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Most frequently used for these scenarios:
 
Most frequently used for these scenarios:
* Use Case 1: a
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* Use Case 1: Tissue classification
**b
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** There are several image quantitative approaches that are applied only in a certain tissue type (for instance, cortical thickness) in which a previous brain segmentation could be needed.
<gallery widths="200px" perrow="3">
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* Use Case 2: Restrict brain regions for image quantitative analysis
Image:MRI_raw.png|Raw T1 weighted MRI Image
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** A white matter mask could be used for specific measurements in some brain diseases, for example, in Multiple Sclerosis it could be useful to help lesion detection algorithms.
Image:MRI_AAD.png|T1 weighted MRI Image with AAD filter (q=1.2)
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Image:MRI_IAD.png|T1 weighted MRI Image with IAD filter (q=1.2)
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<gallery widths="300px" heights="300px" perrow="3">
Image:DTI_FA_raw.png|DTI-FA map without image filtering process
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Image:T1_fullBrain.png|A T1 weighted MRI image illustrating a usual brain
Image:DTI_FA_AAD.png|DTI-FA map with AAD image filtering (q=0.4)
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Image:T1_tissues.png|White matter, gray matter and CSF tissues segmented from the previous MRI image
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Image:WM_3DReconstruction.png|A white matter mask 3D reconstruction
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Image:GM_3DReconstruction.png|A gray matter mask 3D reconstruction
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Image:WM_GM_3DReconstruction.png|A merged white and gray matter masks 3D reconstruction
 
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[https://www.slicer.org/wiki/Modules:EMSegmenter-3.6 EM Segmenter]
  
 
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{{documentation/{{documentation/version}}/extension-section|References}}
 
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* paper
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* [k-Means]
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* [BLS paper]
  
 
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Repositories:
 
Repositories:
* Source code: [https://github.com/CSIM-Toolkits/ GitHub repository]
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* Source code: [https://github.com/CSIM-Toolkits/BrainTissuesExtension GitHub repository]
* Issue tracker:  [https://github.com/CSIM-Toolkits/ open issues and enhancement requests]
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* Issue tracker:  [https://github.com/CSIM-Toolkits/BrainTissuesExtension/issues open issues and enhancement requests]
  
 
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Latest revision as of 16:30, 30 October 2017

Home < Documentation < Nightly < Extensions < BrainTissuesExtension


For the latest Slicer documentation, visit the read-the-docs.


Introduction and Acknowledgements

This work was partially funded by CAPES and CNPq, a Brazillian Agencies. Information on CAPES can be obtained on the CAPES website and CNPq website.
Author: Antonio Carlos da S. Senra Filho, CSIM Laboratory (University of Sao Paulo, Department of Computing and Mathematics)
Contact: Antonio Carlos da S. Senra Filho <email>acsenrafilho@usp.br</email>

CSIM Laboratory  
University of Sao Paulo  
CNPq Brazil  
CAPES Brazil  


Extension Description

BrainTissuesExtension-logo.png

Brain tissue segmentation plays an important role in many different image processing steps, which offers a possibility to study different neurodegenerative diseases or also in more specific tasks such as in brain structural quantitative morphological parameters such as brain atrophy. For this reason, brain tissue segmentation procedures have been intensively studied in recent years. This extension aims to offer a fast, robust and simple solutions for brain tissue segmentation, in which specific segmentation tasks are separated into different modules. See the modules list below to find the most appropriate tool for your study.


Modules

NOTE: The Brain Structures Segmenter is the main module for a general brain segmentation approach, which uses a predefined image processing pipeline in order to result in a smoothed tissue mask. See the module's documentation for more details.

Each segmentation approach is related to a specific algorithm, which is explained in more details in the pulications placed in References section. Please, cite the proper algorithm if any of these methods were used in a scientific study.


Use Cases

Most frequently used for these scenarios:

  • Use Case 1: Tissue classification
    • There are several image quantitative approaches that are applied only in a certain tissue type (for instance, cortical thickness) in which a previous brain segmentation could be needed.
  • Use Case 2: Restrict brain regions for image quantitative analysis
    • A white matter mask could be used for specific measurements in some brain diseases, for example, in Multiple Sclerosis it could be useful to help lesion detection algorithms.

Similar Extensions

EM Segmenter

References

  • [k-Means]
  • [BLS paper]

Information for Developers


Repositories: