early adoption of vph technology – towards realising more personalised, predictive and integrative...
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Early Adoption of VPH Technology – Towards Realising more Personalised, Predictive and Integrative Medicine. Viceconti M. eHealth week 2010 (Barcelona: CCIB Convention Centre; 2010)TRANSCRIPT
WoHIT, Barcelona March 2010
Early Adoption of VPH
TechnologyTowards Realising more Personalised,
Predictive and Integrative Medicine
Marco Viceconti
VPH Network of Excellence
Outreach program
WoHIT, Barcelona March 2010
Synopsis
• What is the VPH?
• Examples of early adoption
© 2007 STEP Consortium
The human Puzzle
• The human body is currently investigated as if it is a jigsaw puzzle made of a trillion pieces
• We are trying to understand the whole picture by looking at a single piece, or at a few closely interconnected pieces
• We do need a frame, within which we can finally start to place the pieces all together, and the glue that connect them
• The frame is not the whole picture, but is the only way we might hope to see it one day
© 2007 STEP Consortium
Paradigmatic Shift in
Biomedical Research
Complement
Reductionism
With
Integrationism
© 2007 STEP Consortium
Integration across ….
Across organ systems
© 2007 STEP Consortium
Environment
Population
Integration across ….
Across
dimensional scales
Across
Temporal scalesOrganism
Organ System
Organ
Tissue
Cell
Molecule
Atom
C C
H H
H H
© 2007 STEP Consortium
Integration across ….
Across DisciplinesMedicine
BioEngineering
Biology
© 2007 STEP Consortium
Integrative Research
• The Integrative Research approach
requires a radical transformation on the
way biomedical research is conducted
• It is necessary to create a framework
made of technology and methods
• We call this framework
Virtual Physiological Human
© 2007 STEP Consortium
Virtual Physiological Human
• The Virtual Physiological Human is a methodological and technological framework that once established will enable the investigation of the human body as a single complex system
• This framework should be:
– Descriptive
– Integrative
– Predictive
© 2007 STEP Consortium
VPH Research Road Map
http://www.europhysiome.org/roadmap
The VPH constellation
Networking
NoE
Osteoporosis
IP
Alzheimer's/ BM &
diagnosis STREP
Heart /CV
disease STREP
Cancer
STREP
Liver surgery
STREP
Heart/ LVD surgery
STREP
Oral cancer/ BM
D&T STREP
CV/ Atheroschlerosis
IP
Breast cancer/
diagnosis STREP
Vascular/ AVF &
haemodialysis STREP
Liver cancer/RFA
therapy STREP
Security and
Privacy in VPH CA
Grid access CA
Heart /CV
disease STREP
Industry
ClinicsInternational
Related Research
WBM - neurovascular
12IMAG Futures meeting
Bethesda, December 2009http://www.aneurist.org/
Clinical Parameters: -weight- opportunistic infections and tumors-survival
Molecular DynamicsBinding Affinity
ProteinStructure& Binding Affinity
VIROLABDRUG RANKING
DECISION SUPPORT
Text Mining Drugranking 1st order logic
Complex Networks Epidemics
Agent-Based Entry
Simulation
CXCR4
CCR5
CD4+ Target Cell
HIV
Phenotype
CA Based Immune Response
Protease and RTmutations
Peter Sloot: Computational Science, University of Amsterdam, The Netherlands.
http://www.virolab.org/
Philips Research Europe - Aachen
euHeart – Integrated Cardiac Care Using
Patient-specific Cardiovascular Modeling
euHeart is about the development, personalization
and validation of computational models of the
heart to improve:
- Diagnosis,
- Treatment planning,
- Interventions and
- Design of implantable devices
5 clinical focus areas:
- Cardiac Resynchronization Therapy
- Radiofrequency Ablation
- Heart Failure
- Coronary Artery Diseases
- Valves and Aorta
Project coordination: Philips Research
Scientific coordination: The University of Oxford
17 partners (6 companies, 6 universities, 5 clinics)
Budget ~19M€ (~14M€ EU funding)
USFD, DKFZ
INRIA
UOXF
Philips Research
http://www.euheart.eu/
Kostas Marias – ICS FORTH
Modellingat the molecularlevel
Simulating tissuebiomechanics
Tumour imageanalysisand visualization
Modelling cancerat the cellularlevel N
SG
1
G
2
M G
0
A
time
Multi-level Modelling In Silico Optimal therapy planning
Simulating Therapy A
Simulating Therapy B
Multi-level data Multi-level modelling
Clinically Oriented Translational Cancer Multilevel Modelling
• ContraCancrum will integrate
molecular, cellular, tissue and
higher level modelling concepts
into a single technological entity
that will simulate therapy
outcome based on the individual
patient information.
• This could serve as a powerful
weapon to better understand and
fight cancer. The most important
IT challenge is to integrate
across different scales into an
integrated cancer
therapy/growth simulator.
• The primary clinical challenge is
to gather histopathology,
microarrays and multi-modal
imaging exams (e.g. DT-MRI,
CT, etc) of the same patient.
• A significant validation on lung and brain cancer cases will demonstrate the added value of
modelling assisted cancer therapy design and will pave the way for its future clinical use.
http://www.contracancrum.eu/
WoHIT, Barcelona March 2010
PreDiCT: Computational
Prediction of Drug Cardiac Toxicity
Drug/Ion Channel model
17.4 17.7 18 18.3 18.6-100
-80
-60
-40
-20
0
20
40
60
V (
mV
)
time (s)
Cellular model
Torsades de Pointes – ElectrocardiogramWhole-ventricular model
Action Potential
Aim: to identify new biomarkers of drug-induced cardiotoxicity using
computational modelling and simulation techniques
Partners
AstraZeneca
Aureus
CRS4 in Sardinia
Fujitsu
GlaxoSmithKline
Novartis
Pfizer
Roche
University of Oxford
University of Szeged
Universidad Politecnica
de Valencia
http://www.vph-predict.eu
Copyright © 2008-2012 VPHOP Consortium - All right reserved 17
Organ-level Model
Cell-levelModel
Constituent-levelModel
Tissue-levelModel
Body-level Model
Boundary Conditions
Bone
Rem
odellin
g
FailureCriterion
ConstitutiveEquation
VPHOP Technology to fight osteoporosisOsteoporotic Virtual Physiological Human
http://www.vphop.eu/
Models in clinical use
18IMAG Futures meeting
Bethesda, December 2009
1 month 7 months 13 months 29 months 36 months 44 months Pre-op
Copyright © 2008-2012 VPHOP Consortium - All right reserved 19
CBA of model-based diagnosis
• Preliminary CBA according to VHOP Technology assessment protocol largely favourable (21% cost reduction)
• Improving effectiveness of 1.3% is enough to break even
Cost of exam 100 patients
(€)
Cost 1 hip fracture
(€)
Effectiveness (% fractures prevented)
Total cost
x 100 patients
(€)
DXA € 30,000.00 € 70,000 82.5% € 1,255,000
CT + Model € 116,200.00* € 70,000 87.5%** € 991,203
Cost saving € 2,637 x patient
* Based on research tools** Estimated from preclinical tests
WoHIT, Barcelona March 2010
Thank You!!• Useful URLs:
– http://www.biomedtown.org
– http://www.vph-noe.eu
20