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WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22...

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WSI Meets Machine Learning: A Clinicians Perspective Michael Feldman, MD, PhD [email protected] @feldmanm30 Professor University of Pennsylvania Vice Chair Pathology & Laboratory Medicine
Transcript
Page 1: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

ldquoWSI Meets Machine Learning A Clinicians Perspective

Michael Feldman MD PhDfeldmanmmailmedupennedu

feldmanm30Professor University of Pennsylvania

Vice Chair Pathology amp Laboratory Medicine

Conflict Disclosure

SAB Philips Sponsored research SCOPIO

No ConflictshellipNo interest

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Digital Workflow and MLAI

Tissue Slide ScreeningRescreening

Predictive QuantitationIHC

Dx

ResFellowsAttending

MolecularIHC Manual TodayMicroscope

IBRIS- Breast- Lung- Prostate- ENT

Automated quant- Companies

Missed eventsNeg Bx - relook

RadioPathoGenomics

Rescreening

EHR

Digital fellow

Event finding- Ca in Nodes- Ca in tissue- Mitoses- Grading

HistoQC

Whole Slide Imaging Versus Microscopy for Primary Diagnosis in Surgical Pathology A Multicenter Blinded Randomized Noninferiority Study of 1992 Cases (Pivotal Study)

The American Journal of Surgical Pathology November 2017

MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 2: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Conflict Disclosure

SAB Philips Sponsored research SCOPIO

No ConflictshellipNo interest

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Digital Workflow and MLAI

Tissue Slide ScreeningRescreening

Predictive QuantitationIHC

Dx

ResFellowsAttending

MolecularIHC Manual TodayMicroscope

IBRIS- Breast- Lung- Prostate- ENT

Automated quant- Companies

Missed eventsNeg Bx - relook

RadioPathoGenomics

Rescreening

EHR

Digital fellow

Event finding- Ca in Nodes- Ca in tissue- Mitoses- Grading

HistoQC

Whole Slide Imaging Versus Microscopy for Primary Diagnosis in Surgical Pathology A Multicenter Blinded Randomized Noninferiority Study of 1992 Cases (Pivotal Study)

The American Journal of Surgical Pathology November 2017

MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 3: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Digital Workflow and MLAI

Tissue Slide ScreeningRescreening

Predictive QuantitationIHC

Dx

ResFellowsAttending

MolecularIHC Manual TodayMicroscope

IBRIS- Breast- Lung- Prostate- ENT

Automated quant- Companies

Missed eventsNeg Bx - relook

RadioPathoGenomics

Rescreening

EHR

Digital fellow

Event finding- Ca in Nodes- Ca in tissue- Mitoses- Grading

HistoQC

Whole Slide Imaging Versus Microscopy for Primary Diagnosis in Surgical Pathology A Multicenter Blinded Randomized Noninferiority Study of 1992 Cases (Pivotal Study)

The American Journal of Surgical Pathology November 2017

MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 4: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Digital Workflow and MLAI

Tissue Slide ScreeningRescreening

Predictive QuantitationIHC

Dx

ResFellowsAttending

MolecularIHC Manual TodayMicroscope

IBRIS- Breast- Lung- Prostate- ENT

Automated quant- Companies

Missed eventsNeg Bx - relook

RadioPathoGenomics

Rescreening

EHR

Digital fellow

Event finding- Ca in Nodes- Ca in tissue- Mitoses- Grading

HistoQC

Whole Slide Imaging Versus Microscopy for Primary Diagnosis in Surgical Pathology A Multicenter Blinded Randomized Noninferiority Study of 1992 Cases (Pivotal Study)

The American Journal of Surgical Pathology November 2017

MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 5: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Whole Slide Imaging Versus Microscopy for Primary Diagnosis in Surgical Pathology A Multicenter Blinded Randomized Noninferiority Study of 1992 Cases (Pivotal Study)

The American Journal of Surgical Pathology November 2017

MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 6: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 7: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Transition to digital pathology workflowsndash Digital Quality Control is paramountndash Recut and rescan slides immediately before getting to a pathologistndash Cost and efficiency savings

Previously not insurmountablendash Increasingly too time consuming to do manuallyndash Non-reproducible

Unmet Need

We need better quality control of our slides

Slides taken from diagnostic cohort of TCGA-BRCA

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 8: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

HistoQC Properties Fast n=1143 in 466 minutes (24sslide) using 6 cores (11TB) Easy ldquoinstallrdquo (git clone) with minimum dependencies

ndash python-openslide matplotlib numpy scipy skimage sklearn

User interface is a single local html5 + JS file no hosting No specialized hardware No internet connection required Designed to be modular and easily extendible

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 9: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

HistoQChellipYour Pixels Matter

HistoQC reproducible slide quality metrics with artifact localization

githubcomchoosehappyHistoQC

andrewjanowczykcaseeduandrewjanowczykcom

HistoQCRepocom

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 10: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Gold in the hillshellipRole of Tumor Morphology ER+ Breast Ca Modified Bloom-Richardson (mBR) grading (Elston and Ellis1991)

ndash Tubule formation nuclear pleomorphism mitotic activity

mBR identifies tumors as low intermediate and high grade Correlation between tumor Grade and outcome Visually determined qualitative High inter- and intra-observer variability

Among 7 pathologists k = 050 ndash 059 (Meyer et al 2005)Between pathology departments k = 051 to 054 (Boisen et al 2000)

Suboptimal treatment can result from incorrect grading (Dalton et al 2000)

Presenter
Presentation Notes
Underline changes in genomic expression manifest as physical changes on tumor morphology13Tumor Grade is reflective of tumor morphology13Grade is cpmprisd of three fearures13The bloom richard crtitera identifies tumor as low grade intermediate and high grade1313Next slide ---13Plot ndash there is correlation between grade and outcome early vs distant recurrence ln- er+ tumors13Low grade tend to havr distant recurrence of diseasw13

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 11: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

IbRiS Comparing against Oncotype Dx RS

0 01 02 03 04 05 06 07 08 09 1Normalized Distance

θ1 θ2

te ed ate outco e

Poor outcome

Good outcomeIntermediate outcomePoor outcome

Journal Path Informatics 2011 Madabhushi Feldman et al

~450 feature data spaceHand crafted featuresInspired by Pathology expertise

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 12: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Ibris and outcomes ECOG 2197

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 13: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Beck et al Science Trans Med 3 (108) 2011

Predicting Breast Cancer Survival using Computational Morphology C-Path

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 14: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Beck et al Science Trans Med 3 (108) 2011

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 15: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Finding Lymph node mets ISBI 2016CAMELYON 201617

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 16: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

JAMA December 12 2017 Volume 318 Number 22 and arXiv 170302442v2 March 2017

Machine vs person Performance (ROC)

Pathologist 0966 (34 misses) WOTC

Harvard (Best algorithm) 0925 (75 misses)

Combination Man + Machine 0994 (06 misses)

Dual Neural net 0994

FROC=sensitivity at various FP rates8FP is FN rate at 8FP per slide

Presenter
Presentation Notes
False positive detection rate 30-40

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 17: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 18: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology

12000 WSI

Fuchs et al Nature Med 2019

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 19: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Rescreening for prostate cancerIbex inc Maccabi Healthcare Services is a large healthcare provider with a centralized

pathology institute - 120000 histology accessions per year- ~700 prostate core needle biopsies (PCNBs)- Roughly 40 of the PCNBs are diagnosed with cancer

IBEX Medical Analytics whole slide images of PCNBs including cancerous glands (of Gleason patterns 3 4 and 5) high-grade PIN and inflammation The algorithm utilizes state-of-the-art Deep learning CNN trained on many thousands of image samples taken from hundreds of PCNBs from multiple institutes and manually annotated by senior pathologists

Small study shown at ECDP 2018 in Helsinki ndash 100 retrospective cases that had been diagnosed as benign and found two three errors - In two cases the algorithm identified small foci of Gleason 3 Placed into watchful waiting groups Two years later both patients were diagnosed with higher grade cancer and underwent radical prostatectomy - Third case was a larger focus of pseudo-hyperplastic CAP resection showed a CAP(4+3) confined to prostate

System now used to rescreen all negative core prostate biopsies- New workflow AI has 30-40 false positive rate ndash pathologist then reviews specific cores identified by hotspots to decide if any lesion needs further workup or staining

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 20: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs How to get big data with outcomes Federation Practice models

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 21: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Current Status Diagnostic Silos without clear integration strategy

RadiologicImaging

Lab MolecularDiagnostics

Histology

Other ldquoomicsrdquo

MetabolomicsMicrobi ldquoomerdquoSocial Media ldquoomerdquo

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 22: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Path Rads integration

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 23: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Enterprise imaging team -shared Enterprise storage ndash shared PACS Software development will thrive in

Radiology $$$ Structured reporting off the Image Integration with EMR to gather clinical data App store API access to pixel pipeline

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 24: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Outline

Digital Pathology Fellow Silo or Enterprise view (RadPath)

So why arenrsquot we there yethellip Scanner costs Itrsquos not just the pixels Big data with outcomes Practice and business models

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 25: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Industry timeline digital pathology

199860 min scan$$$

2018lt60 s scanZ axis coming$$$$

2017FDA V10

V15ComputationalPhotonics5 minZ axis$

Gen1 Gen4-5 Gen6

V20Slidefree imaging2-3 minexperimental

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 26: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

New imaging modalities coming

075NA 12 NA

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 27: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Digital Pathology is not just images

Treanor et al 2014 time and motion studies 14-12 of time is looking through medical record for data How do we make data gathering more precise more focused

and faster Center healthcare Innovation EHR extensions Yevgeniy Gitelman Katherine Choi Oncology Pathology RadiologyOncology Surgery

Hum Path Vol45(10) Oct2014 2101-6

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 28: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Important disease-specific patient context is highlighted

1

Full reports for drilldownEliminate non-clinical 50

Notes Imaging and Surgical Pathology on one timeline chronologyFocus on the key 30

Smart previewsshow ldquoImpressionrdquo for quick scanningFocus on the key 5

2

3

4

Scope + Data Feasibility

Prototype + Design

Contextual Inquiry

Scope + Data Feasibility

Prototype + Design

Build +IterateExploring EHR Extensions

Custom filters by type or smarter groupers

Presenter
Presentation Notes
So far designing alongside clinicians as they prepare their charts before visits the past couple months wersquove found a few key elements wersquove found to be valuable in improving the inefficiencies of finding relevant data about a patient within the chart 1313Taking this patient as an example13This early version aggregates what was split between three separate views (notes radiology pathology) into a single cohesive timeline saving many switchbacks clicks and load on memory13It eliminates clutter to focus on 30 of listings that build a clinical story pulls out the important 5 of the words buried in reports that are key impressions into the previews and filter out over 50 of words per report that is non-clinical clutter1313This shows a screenshot of the current working prototype that will continue to be iterated on with oncologists over the next few months with the goal to measure early outcomes and benefit before a decision to scale

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 29: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Penn DataStore II Foundation

Penn DataStore

Many source databases consolidated into a massive Data Warehouse (over 6 billion rows of data)

bull Standard metricsmeasures (data domain committees)

bull Curated Data Stores

bull Self-Service tools

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 30: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Multi-Institutional Collaborations

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Current Paradigm Data-Sharing Pooled Datasets

DOES NOT SCALE DUE TO

LEGAL PRIVACY amp DATA-OWNERSHIP

CONCERNS

The HopeMulti-Institutional Collaborations

Spyridon Bakas UO1 with Intel partnership

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 31: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Feasibility study on brain tumor segmentationbull Data from 10 institutions

bull Patients per institution 70 27 17 12 11 9 6 6 4 3

Multi-Institutional Collaboration

Sheller et al MICCAI BrainLes Springer LNCS 2019 (arXiv181004304)

Proposed Paradigm Federated LearningWithout sharing patient data

Current Paradigm Data-SharingLEGAL PRIVACY DATA-OWNERSHIP CONCERNS

Data-sharing performance 862 Federated performance 852 (987 of Data-sharing performance)

Spyridon Bakas UO1 with Intel partnership

Presenter
Presentation Notes
(12 minutes)1313Of course this is a feasibility study and needs more investigation13

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 32: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Conclusions FDA clearance is only a beginning Machine learning will accelerate Targeted review Rare event detection Tumor finding Feature classification Grading ScreeningRescreening

Outcome prediction

qIHC qMultiplex

Large well curated and annotated datasets are platinum Federation May help us to get to big data

Data Science is our future ndash we are hiring Business ndash new models of practice How do we position these tools for new opportunities to care

for patients

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33
Page 33: WSI Meets Machine Learning: A Clinicians Perspective...JAMA December 12, 2017 Volume 318, Number 22 and arXiv 1703.02442v2 March 2017. Machine vs person. Performance (ROC) ... Sheller

Case Western Lab Director Anant Madabhushi PhDPostdocs James Monaco PhD Gaoyu Xiao PhD Jun Xu PhD Andrew Janowczyk PhDGraduate Students Jonathan Chappelow Scott Doyle Satish Viswanath Pallavi Tiwari George Lee Shannon Agner Ajay Basavanhally Rob Toth Andrew JanowczykUndergraduate Students Jay Naik Hussain Fatakdawala Amod Jog

Penn Clinical Collaborators Spyridon Bakas PhD David Roth MD PhD Mitch Schnall MD PhD David Roth MD PhD John E Tomaszewski MD William Lee Natalie Shih MD

Clinical Collaborators Shridar Ganesan MD PhD

Penn Center Clinical Innovation Roy Rosin Yevgeniy Gitelman MD Katherine Choi

  • ldquoWSI Meets Machine Learning A Clinicians Perspective
  • Conflict Disclosure
  • Outline
  • Digital Workflow and MLAI
  • Slide Number 5
  • MSK Whole slide imaging equivalency and efficiency study experience at a large academic centerMod Path Feb 2019 Sirintrapun et al
  • Unmet Need
  • HistoQC Properties
  • HistoQChellipYour Pixels Matter
  • Slide Number 10
  • IbRiS Comparing against Oncotype Dx RS
  • Ibris and outcomes ECOG 2197
  • Slide Number 13
  • Slide Number 14
  • Finding Lymph node mets ISBI 2016CAMELYON 201617
  • Slide Number 16
  • Impact of Deep Learning Assistance on theHistopathologic Review of Lymph Nodes for MetastaticBreast CancerAJSP 42(12) 2018 Stumpe et al
  • Terabyte-scale Deep Multiple Instance Learningfor Classication and Localization in Prostate Pathology
  • Rescreening for prostate cancerIbex inc
  • Outline
  • Current Status Diagnostic Silos without clear integration strategy
  • Path Rads integration
  • Slide Number 23
  • Outline
  • Industry timeline digital pathology
  • New imaging modalities coming
  • Digital Pathology is not just images
  • Slide Number 28
  • Penn DataStore II Foundation
  • Slide Number 30
  • Slide Number 31
  • Conclusions
  • Slide Number 33

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