Can GPUs Cure Cancer? Multi-scale Integrative Analysis Predict - - PowerPoint PPT Presentation

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Can GPUs Cure Cancer? Multi-scale Integrative Analysis Predict - - PowerPoint PPT Presentation

Extreme Computing, Clinical Medicine and GPUs or Can GPUs Cure Cancer? Multi-scale Integrative Analysis Predict treatment outcome, select, monitor treatments Computer assisted exploration of new classification schemes Tumor


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Extreme Computing, Clinical Medicine and GPUs or

Can GPUs Cure Cancer?

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Multi-scale Integrative Analysis

  • Predict treatment
  • utcome, select,

monitor treatments

  • Computer assisted

exploration of new classification schemes

  • Tumor heterogeneity,

Immune response

  • Reduce inter-observer

variability in diagnosis

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Pathomics, Radiomics

Identify and segment trillions of objects – nuclei, glands, ducts, nodules, tumor niches … from Pathology, Radiology imaging datasets Deep learning to classify regions and segmented objects Support queries against ensembles of features extracted from multiple datasets Statistical analyses and machine learning to link Radiology/Pathology features to “omics” and outcome biological phenomena Analyses to bridge spatio-temporal scales – linked Pathology, Radiology studies

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Radiomics

Decoding tumour phenotype by noninvasive imaging using a quantitative radiomics approach

Hugo J. W. L. Aerts et. Al. Nature Communications 5, Article number: 4006 doi:10.1038/ncomms5006

Features Patients

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Integrative Morphology/”omics”

  • Quantitative Feature Analysis in

Pathology: Emory In Silico Center for Brain Tumor Research (PI = Dan Brat, PD= Joel Saltz)

  • NLM/NCI: Integrative

Analysis/Digital Pathology R01LM011119, R01LM009239 (Dual PIs Joel Saltz, David Foran)

  • J Am Med Inform Assoc. 2012

Integrated morphologic analysis for the identification and characterization of disease subtypes.

Pathomics

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Tools: Quantitative Imaging Pathology - QuIP

Tool Set

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QuIP Specific Aims

  • Aim 1: Deploy expanded resources for Integrative Image-

Omics Studies.

– expanded capabilities in data driven information integration, semantic query capability and feature management

  • Aim 2: Increase capacity to acquire high quality data

collections.

– extend and automate curation processes to increase TCIA’s collections and add new types of data based on priorities established by our Research Advisory Committee – consolidate the TCIA software stack into a set of easily deployable entities to reduce TCIA’s long-term internal operational costs

  • Aim 3: Enhance resources to support validation studies and

research reproducibility.

– deploy a set of tools and capabilities to directly support ITCR imaging grand challenges

  • AIM 4: Emphasize Community Engagement, Collaboration and

Dissemination.

– Research Advisory Committee will be created to provide direct community guidance on TCIA enhancement and collection priorities.

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Feature Explorer - Integrated Pathomics Features, Outcomes and “omics” – TCGA NSCLC Adeno Carcinoma Patients

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SEER Virtual Tissue Repository

  • Lynne Penberthy MD, MPH NCI SEER
  • Ed Helton PhD NCI CBIIT Clinical Imaging Program
  • Ulrike Wagner CBIIT Clinical Imaging Program
  • Radim Moravec NCI PhD, NCI SEER
  • Ashish Sharma PhD Biomedical Informatics Emory
  • Joel Saltz MD, PhD Biomedical Informatics Stony Brook
  • Tahsin Kurc PhD Biomedical Informatics Stony Brook
  • Georgia Tourassi, Oak Ridge National Laboratory

Vision – Enable population/epidemiological cancer research that leverages rich cancer phenotype information available from Pathology tissue studies

NCIP/Leidos 14X138 and HHSN261200800001E - NCI

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SEER Virtual Tissue Repository

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SEER VIRTUAL TISSUE REPOSITORY

  • Create linked collection of de-identified clinical data

and whole slide images

  • Extract features from a sample set of images

(pancreas and breast cancer).

  • Enable search, analysis, epidemiological

characterization

  • Pilot focus on extreme outcome Breast Cancer,

Pancreatic Cancer cases

  • Display images and analyzed features
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QuIP Segmentation Curation Web Application

  • 1. User interactively marks up regions and selects

results from best analysis run for each region.

  • 2. Selections are refined through review processes

supervised by an expert Pathologist

Curation of Segmentation Results

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TIL quantitation and distribution

  • The most common diagnostic tool in pathology is the

H&E tissue image

  • FDA just approved use of whole slide images in

primary Pathology diagnosis

  • TCGA dataset, which comprises 33 tumor types,

contains over 30,000 tissue slide images.

  • Link pattern of tumor infiltrating distribution to
  • utcome, “omics”, treatment
  • Deep Learning TIL method requires modest training

and curation – suitable for high throughput analyses

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Importance of Immune System in Cancer Treatment and Prognosis

  • Tumor spatial context and cellular heterogeneity are

important in cancer prognosis

  • Spatial TIL densities in different tumor regions have been

shown to have high prognostic value – they may be superior to the standard TNM classification

  • Immune related assays used to determine Checkpoint

Inhibitor immune therapy in several cancer types

  • Strong relationships with molecular measures of tumor

immune response – results to soon appear in TCGA Pan Cancer Immune group publications

  • TIL maps being computed for SEER Pathology studies and

will be routinely computed for data contributed to TCIA archive

  • Ongoing study to relate TIL patterns with immune gene

expression groups and patient response

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  • Stony Brook, Institute for Systems Biology, MD Anderson, Emory

group

  • TCGA Pan Cancer Immune Group – led by ISB researchers
  • Deep dive into linked molecular and image based characterization of

cancer related immune response

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Le Hou – Graduate Student Computer Science Vu Nguyen– Graduate Student Computer Science Anne Zhao – Pathology Informatics Biomedical Informatics, Pathology (now Surg Path Fellow SBM) Raj Gupta – Pathology Informatics Biomedical Informatics, Pathology

Deep Learning and Lymphocytes: Stony Brook Digital Pathology Trainee Team

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Imaging Based TIL Analysis Workflow

Deep Learning Training, Validation and Prediction

  • Algorithm first trained on image patches
  • Several cooperating deep learning algorithms generate heat maps
  • Heat maps used to generate new predictions
  • Companion molecular statistical data analysis pipelines
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Tumor Infiltrating Lymphocyte Maps and Classification

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Clustering and TIL Maps

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Results

Details embargoes by TCGA but in general terms:

  • Correlations in %TILS with detailed TCGA Pan Cancer

Immune molecular lymphocyte studies

  • Image derived %TILS highly predictive of outcome

and molecular tumor characteristics

  • Pattern of clustering is highly predictive of outcome in

several tumor types

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Tumor Classification – Reduce Inter-observer variability

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Brain Tumor Classification Results

Le Hou, Dimitris Samaras, Tahsin Kurc, Yi Gao, Liz Vanner, James Davis, Joel Saltz

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TCIA Sustainment and Scalability – Platforms for Quantitative Imaging Informatics in Precision Medicine

Fred Prior, PhD University of Arkansas for Medical Sciences Joel Saltz, MD, PhD Stony Brook University Ashish Sharma, PhD Emory University

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Specific Aims

  • Aim 1: Integrative Image-Omics Studies.

– expanded capabilities in data driven information integration, semantic query capability and feature management

  • Aim 2: High quality data collections.

– extend and automate curation processes and add new types of data

  • Aim 3: Support validation studies and research

reproducibility.

– support ITCR imaging grand challenges

  • AIM 4: Community Engagement, Collaboration

and Dissemination.

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TIES Cancer Research Network (TCRN)

UPMC Hillman Cancer Center (lead)

  • Augusta University Cancer Center
  • Abramson Cancer Center (Penn)
  • Stonybrook University (new

partner)

  • Roswell Park Cancer Institute

Network Trust Agreements

  • IRBs agree that use of data for investigators

is NHSR, no need for an additional IRB protocol even to access record level de-id data

  • Governance
  • Agreement to abide by SOPs
  • Instrument of Adherence

Soliciting new WSI “ready” partners!

http://ties.dbmi.pitt.edu/tcrn/

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Funding – Thanks!

  • This work was supported in part by U24CA180924,

U24CA215109, NCIP/Leidos 14X138 and HHSN261200800001E from the NCI; R01LM011119- 01 and R01LM009239 from the NLM

  • This research used resources provided by the National

Science Foundation XSEDE Science Gateways program under grant TG-ASC130023 and the Keeneland Computing Facility at the Georgia Institute of Technology, which is supported by the NSF under Contract OCI-0910735.

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Thanks!