Bioimage Informatics for Systems Pharmacology Authors : Fuhai Li - - PowerPoint PPT Presentation

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Bioimage Informatics for Systems Pharmacology Authors : Fuhai Li - - PowerPoint PPT Presentation

Bioimage Informatics for Systems Pharmacology Authors : Fuhai Li Zheng Yin Guangxu Jin Hong Zhao Stephen T. C. Wong Presented by : Iffat chowdhury Motivation Image is worth for phenotypic changes identification High resolution


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Bioimage Informatics for Systems Pharmacology

Authors : Fuhai Li Zheng Yin Guangxu Jin Hong Zhao Stephen T. C. Wong

Presented by : Iffat chowdhury

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Motivation

 Image is worth for phenotypic changes identification  High resolution microscopy, fluorescent labeling  Rich in terms of information of biological processes  Bioimage informatics

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Bioimage informatics

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Image based Studies Example

 Multicolor cell imaging-based studies  Live-cell imaging-based studies  Neuron imaging-based studies  C. elegans imaging-based studies

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Image based Studies Example

 Multicolor cell imaging-based studies  Live-cell imaging-based studies  Neuron imaging-based studies  C. elegans imaging-based studies

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Multicolor cell imaging-based studies

 Multiple fluorescent markers  Feature extraction  Drosophila cell  Softwares : CellProfiler, Fiji, Icy, GcellIQ,

PhenoRipper

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Multicolor cell imaging-based studies

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Multicolor cell imaging-based studies

 Multiple fluorescent markers  Feature extraction  Drosophila cell  Softwares : CellProfiler, Fiji, Icy, GcellIQ,

PhenoRipper

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Image based Studies Example

 Multicolor cell imaging-based studies  Live-cell imaging-based studies  Neuron imaging-based studies  C. elegans imaging-based studies

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Live-cell imaging-based studies

 Progression, proliferation, migration of cell  Dynamic behaviors of cells  Live Hela cell images  Softwares : CellProfiler, Fiji, BioimageXD, Icy,

CellCognition, DCellIQ, TLM-Tracker

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Live-cell imaging-based studies

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Live-cell imaging-based studies

 Progression, proliferation, migration of cell  Dynamic behaviors of cells  Live Hela cell images  Softwares : CellProfiler, Fiji, BioimageXD, Icy,

CellCognition, DCellIQ, TLM-Tracker

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Image based Studies Example

 Multicolor cell imaging-based studies  Live-cell imaging-based studies  Neuron imaging-based studies  C. elegans imaging-based studies

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Neuron imaging-based studies

 To study brain functions and disorders  Use super-resolution microscope  Softwares : NeurphologyJ, NeuronJ,

NeuriteTracer, NeuriteIQ, NeuronMetrics, NeuronStudio, Vaa3D

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Neuron imaging-based studies

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Neuron imaging-based studies

 To study brain functions and disorders  Use super-resolution microscope  Softwares : NeurphologyJ, NeuronJ,

NeuriteTracer, NeuriteIQ, NeuronMetrics, NeuronStudio, Vaa3D

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Neuron imaging-based studies

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Image based Studies Example

 Multicolor cell imaging-based studies  Live-cell imaging-based studies  Neuron imaging-based studies  C. elegans imaging-based studies

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Caenorhabditis elegans imaging-based studies

 Common animal model for drug and target

discovery

 Consists of only hundred of cells  Embryonic development

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Caenorhabditis elegans imaging-based studies

Source : Wikipedia

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Caenorhabditis elegans imaging-based studies

 Common animal model for drug and target

discovery

 Consists of only hundred of cells  Embryonic development

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Bioimage informatics

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Bioimage informatics

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Object Detection

 Detect the locations of individual objects  Facilitate the segmentation by giving the position

and initial boundary information

 Two types of object detection :

  • 1. Blob structure detection
  • 2. Tube structure detection
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Blob Structure Detection

 Nuclei detection  Distance transformation  Seeded watershed  Intensity information  Gradient vector

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Blob Structure Detection

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Blob Structure Detection

 Nuclei detection  Distance transformation  Seeded watershed  Intensity information  Gradient vector

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Tube Structure Detection

 Intensity remains constant  Centerline detection  Edge detectors  Machine-learning

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Tube Structure Detection

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Tube Structure Detection

 Intensity remains constant  Centerline detection  Edge detectors  Machine-learning

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Tube Structure Detection

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Bioimage informatics

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Object Segmentation

 Delineate boundaries of objects  Threshold segmentation  Fuzzy-C-Means method  Watershed algorithm  Active contour model  Level set representation  Voronoi segmentation  Graph cut method  Softwares : CellProfiler, Fiji, Ilastik, SLIC

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Object Segmentation

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Object Segmentation

 Delineate boundaries of objects  Threshold segmentation  Fuzzy-C-Means method  Watershed algorithm  Active contour model  Level set representation  Voronoi segmentation  Graph cut method  Softwares : CellProfiler, Fiji, Ilastik, SLIC

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Object Segmentation

Figure taken from http://www.dma.fi.upm.es/mabellanas/tfcs/fvd/voronoi.html

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Object Segmentation

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Object Segmentation

 Delineate boundaries of objects  Threshold segmentation  Fuzzy-C-Means method  Watershed algorithm  Active contour model  Level set representation  Voronoi segmentation  Graph cut method  Softwares : CellProfiler, Fiji, Ilastik, SLIC

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Bioimage Informatics

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Object Tracking

 Study dynamic behaviors  Three approaches :

  • 1. Model evolution based
  • 2. Spatial-temporal volume segmentation based
  • 3. Segmentation based
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Object Tracking

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Object Tracking

 Study dynamic behaviors  Three approaches :

  • 1. Model evolution based
  • 2. Spatial-temporal volume segmentation based
  • 3. Segmentation based
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Object Tracking

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Object Tracking

 Study dynamic behaviors  Three approaches :

  • 1. Model evolution based
  • 2. Spatial-temporal volume segmentation based
  • 3. Segmentation based
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Object Tracking

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Model Evolution Based

 Cell / nuclei are detected first  Boundary comes next  Contour model  Different objects get different colors

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Spatial-Temporal Volume Segmentation Based

 2D image sequences as 3D  Level set segmentation approaches

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Segmentation Based

 First detected and then segmented  Tracking is dependent of segmentation and

detection

 Association  Filters may be used

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Bioimage Informatics

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Image Visualization

 Fiji, Icy, BioimageXD are for higher dimensional

data

 NeuronStudio for neuron image analysis  Farsight and vaa3D for microscopy images  For customize tools, Visualization Toolkit helps.

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Numerical Features

 Quantitative measuring

Four quantitative features

  • 1. Wavelet feature
  • 2. Geometry feature
  • 3. Zernike feature
  • 4. Haralick texture feature
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Numerical Features

 Wavelet feature : characterize the images in both –

scale and frequency domain.

Geometry feature : describe the shape and texture features.

Zernike feature : projection and the use of Zernike moment.

Haralick texture feature : use grey-level matrices

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Phenotype Identification

 Cell cycle phase identification  User defined phenotype, identification and

classification

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Cell Cycle Phase Identification

 Automated cell cycle phase identification is needed

to calculate the dwelling time of individual cells in each phase.

 SVM, K-nearest neighbors, Bayesian classifiers  Can be done during segmentation and tracking.

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Cell Cycle Phase Identification

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Cell Cycle Phase Identification

 Automated cell cycle phase identification is needed

to calculate the dwelling time of individual cells in each phase.

 SVM, K-nearest neighbors, Bayesian classifiers  Can be done during segmentation and tracking.

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User Defined Phenotype, Identification and Classification

 Exhibit novel phenotype and unpredicted behaviors.  Gaussian Mixture Model with statistics  Clustering analysis  Classifiers

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User Defined Phenotype, Identification and Classification

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User Defined Phenotype, Identification and Classification

 Exhibit novel phenotype and unpredicted behaviors.  Gaussian Mixture Model with statistics  Clustering analysis  Classifiers

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Multidimensional Profiling Analysis

 Clustering analysis  SVM-based multivariate profiling analysis  Factor-based multidimensional profiling analysis  Subpopulation-based heterogeneity profiling

analysis

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Multidimensional Profiling Analysis

 Clustering analysis  SVM-based multivariate profiling analysis  Factor-based multidimensional profiling analysis  Subpopulation-based heterogeneity profiling

analysis

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Clustering Analysis

 Experimental perturbations  Softwares : Cluster 3.0, Java TreeView

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Multidimensional Profiling Analysis

 Clustering analysis  SVM-based multivariate profiling analysis  Factor-based multidimensional profiling analysis  Subpopulation-based heterogeneity profiling

analysis

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SVM-basheed Multivariate Profiling Analysis

 Wells with treated cells compared to wells with

untreated cells.

 The differences are indicated by the outputs of

SVM

 One is the accuracy and another is the normal

vector of the hyperplane.

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SVM-basheed Multivariate Profiling Analysis

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Multidimensional Profiling Analysis

 Clustering analysis  SVM-based multivariate profiling analysis  Factor-based multidimensional profiling

analysis

 Subpopulation-based heterogeneity profiling

analysis

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Factor-based Multidimensional Profiling Analysis

 Correlation of the features within the group and

between the groups.

 Redundancy can be removed by factor analysis.  Six factors representing nuclei size, DNA

replication, chromosome condensation, nuclei morphology etc. by factor analysis.

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Multidimensional Profiling Analysis

 Clustering analysis  SVM-based multivariate profiling analysis  Factor-based multidimensional profiling analysis  Subpopulation-based heterogeneity profiling

analysis

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Subpopulation-based Heterogeneity Profiling Analysis

 Heterogeneous behavior within a cell population.  GMM model to divide into subpopulation.

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Exercises !!!