Agent-based methods for translational cancer multilevel modelling Sylvia Nagl PhD Cancer Systems Science & Biomedical Informatics UCL Cancer Institute.

Slides:



Advertisements
Similar presentations
Evidence for Complex Causes
Advertisements

Statistical methods and tools for integrative analysis of perturbation signatures Mario Medvedovic Laboratory for Statistical Genomics and Systems Biology.
Clinical Bioinformatics: the need for CBAS and SCBC in Applied Sciences? Dr James Mah MBBS(Lon), BSc(Hons,Lon). Chair, CBAS 2009 Singapore
1 Harvard Medical School Mapping Transcription Mechanisms from Multimodal Genomic Data Hsun-Hsien Chang, Michael McGeachie, and Marco F. Ramoni Children.
Biological pathway and systems analysis An introduction.
Prof. Carolina Ruiz Computer Science Department Bioinformatics and Computational Biology Program WPI WELCOME TO BCB4003/CS4803 BCB503/CS583 BIOLOGICAL.
16 November 2004Biomedical Imaging BMEN Biomedical Imaging of the Future Alvin T. Yeh Department of Biomedical Engineering Texas A&M University.
1 Genetics The Study of Biological Information. 2 Chapter Outline DNA molecules encode the biological information fundamental to all life forms DNA molecules.
Systems Biology Biological Sequence Analysis
27803::Systems Biology1CBS, Department of Systems Biology Schedule for the Afternoon 13:00 – 13:30ChIP-chip lecture 13:30 – 14:30Exercise 14:30 – 14:45Break.
Computational Molecular Biology (Spring’03) Chitta Baral Professor of Computer Science & Engg.
Introduction to Genomics, Bioinformatics & Proteomics Brian Rybarczyk, PhD PMABS Department of Biology University of North Carolina Chapel Hill.
SCB : 1 Department of Computer Science Simulation and Complexity SCB : Simulating Complex Biosystems Susan Stepney Department of Computer Science Leo Caves.
Systems Biology Biological Sequence Analysis
Computational Systems Biology Prepared by: Rhia Trogo Rafael Cabredo Levi Jones Monteverde.
27803::Systems Biology1CBS, Department of Systems Biology Schedule for the Afternoon 13:00 – 13:30ChIP-chip lecture 13:30 – 14:30Exercise 14:30 – 14:45Break.
Systems Biology Biological Sequence Analysis
Bioinformatics in the Biology Curriculum Gloria Rendon NCSA July 2008.
Introduction of Cancer Molecular Epidemiology Zuo-Feng Zhang, MD, PhD University of California Los Angeles.
Introduction to molecular networks Sushmita Roy BMI/CS 576 Nov 6 th, 2014.
Genetics: From Genes to Genomes
What is “Biomedical Informatics”?. Biomedical Informatics Biomedical informatics (BMI) is the interdisciplinary field that studies and pursues.
Introduction to Molecular Epidemiology Jan Dorman, PhD University of Pittsburgh School of Nursing
The NIH Roadmap for Medical Research
 Scientific study of life.  Present era is most exciting in biology  Scientists are trying to solve biological puzzles like:  How a single microscopic.
Paola CASTAGNOLI Maria FOTI Microarrays. Applicazioni nella genomica funzionale e nel genotyping DIPARTIMENTO DI BIOTECNOLOGIE E BIOSCIENZE.
Computational Molecular Biology Biochem 218 – BioMedical Informatics Gene Regulatory.
Biological pathway and systems analysis An introduction.
Knowledgebase Creation & Systems Biology: A new prospect in discovery informatics S.Shriram, Siri Technologies (Cytogenomics), Bangalore S.Shriram, Siri.
Epigenome 1. 2 Background: GWAS Genome-Wide Association Studies 3.
Problem Statement and Motivation Key Achievements and Future Goals Technical Approach Investigators: Yang Dai Prime Grant Support: NSF High-throughput.
P systems: A Modelling Language Marian Gheorghe Department of Computer Science University of Sheffield Unconventional Programming Paradigms; Sept’04.
Bioinformatics and medicine: Are we meeting the challenge?
ANALYZING PROTEIN NETWORK ROBUSTNESS USING GRAPH SPECTRUM Jingchun Chen The Ohio State University, Columbus, Ohio Institute.
Funding Opportunities at the NIH and the National Institute of Biomedical Imaging and Bioengineering Grace C.Y. Peng, Ph.D. March 19, st annual ORNL.
Integrated Biomedical Information for Better Health Workprogramme Call 4 IST Conference- Networking Session.
Introduction to Proteomics 1. What is Proteomics? Proteomics - A newly emerging field of life science research that uses High Throughput (HT) technologies.
The Cancer Systems Biology Consortium (CSBC)
Computational biology of cancer cell pathways Modelling of cancer cell function and response to therapy.
NIH Council of Councils Meeting November 21, 2008 LINCS Library of Integrated Network-based Cellular Signatures.
Adam Heathfield, PhD Senior Director, Worldwide Policy, Pfizer Inc. September 25, 2013 Personalised Medicine – an industry perspective.
Systems Biology ___ Toward System-level Understanding of Biological Systems Hou-Haifeng.
KEY CONCEPT Technology continually changes the way biologists work.
Biological Signal Detection for Protein Function Prediction Investigators: Yang Dai Prime Grant Support: NSF Problem Statement and Motivation Technical.
NY Times Molecular Sciences Institute Started in 1996 by Dr. Syndey Brenner (2002 Nobel Prize winner). Opened in Berkeley in Roger Brent,
Bioinformatics MEDC601 Lecture by Brad Windle Ph# Office: Massey Cancer Center, Goodwin Labs Room 319 Web site for lecture:
Neural Networks and Machine Learning Applications CSC 563 Prof. Mohamed Batouche Computer Science Department CCIS – King Saud University Riyadh, Saudi.
HUMAN GENOME PROJECT International effort of 13 years (1990 – 2003) Identified all the approximate 20,000 – 25,000 genes in human DNA Determined the sequences.
EB3233 Bioinformatics Introduction to Bioinformatics.
Genome Biology and Biotechnology The next frontier: Systems biology Prof. M. Zabeau Department of Plant Systems Biology Flanders Interuniversity Institute.
ESI workshop Stochastic Effects in Microbial Infection The National e-Science Centre Edinburgh September 28-29, 2010.
Biomedical Informatics and Health. What is “Biomedical Informatics”?
Molecular Biomarkers & Targets an overview Michael Messenger NIHR Diagnostic Evidence Co-Operative & Leeds Cancer Research UK Centre.
Medical and Health research in Norway – in brief Director Mari K. Nes 22 June 2006.
TITIN ANDRI WIHASTUTI SCHOOL OF NURSING FACULTY OF MEDICINE
Semantic Web - caBIG Abstract: 21st century biomedical research is driven by massive amounts of data: automated technologies generate hundreds of.
MRC’s Translational Research Funding
What is Biomedical Research?
Statistical Applications in Biology and Genetics
Dept of Biomedical Informatics University of Pittsburgh
Songjian Lu, PhD Assistant Professor
By charles epigenetics.
THE NEW MEDICINE AND BIOLOGY Will they be Information Sciences?
From Data to Therapies Research in Xinghua Lu’s Lab
Lecture 7: Biological Network Crosstalk Y. Z
What is “Biomedical Informatics”?
Schedule for the Afternoon
The Study of Biological Information
Computational Discovery of miR-TF Regulatory Modules in Human Genome
What is “Biomedical Informatics”?
Presentation transcript:

Agent-based methods for translational cancer multilevel modelling Sylvia Nagl PhD Cancer Systems Science & Biomedical Informatics UCL Cancer Institute London

Main points of the talk Potential of agent-based modelling Systems biology perspective on large cell network simulation A new synergy between modelling and wet biology

Hanahan and Weinberg (2000) Cell 100:57-70 The hallmarks of cancer

Systems biology and medicine Diseases are abnormal perturbations of biological networks - through defects in molecular mechanisms or environmental stimuli Therapies are the interventions needed to restore networks to their normal states

Butcher et al. (2004) Nature Biotechnology 22:1253 Modelling challenge: genome to phenotype extended genotype elementary phenotype

Systems biology and medicine Fundamental question of where function lies within a cell –distributed (networks of interacting molecules) –hierarchical network motifs and modules complex network connecting modules A globalist view of the dynamics of (large) cell networks is therefore needed cell and tissue levels cell networks molecular interactions (molecular dynamics) E-science }

Systems biology and cancer Given the many components of functional modules, there are different paths to disease-inducing systems failure A multitude of ways to ‘solve’ the problems of achieving a survival advantage in cancer cells Each patient’s cancer cells evolve through an independent set of genomic lesions and selective environments - a fundamental reason for differences in survival and treatment response

Likelihood of cancer cell death in response to DNA damaging drugs and radiotherapy DNA damage response network Supporting treatment optimisation in the individual patient

Agent-based modelling Agent based model Simulation A1A2 A1 Ai A2 One-to-one mapping of cell components to computational agents Agents at multiple levels: Protein, network motif, module (organelle, cell …) Interaction rules Translates wealth of molecular knowledge into component-based models Patient-specific molecular data ?

TF1 S1 S2 SN TF2 TFm Signal-genetic network Environment Transcription factors Genes DNA damage Changes in genome activation

TF1 S1 S2 SN TF2 TFm Signal-genetic network Environment Transcription factors Genes Agent-based modelling: ‘Agent’ (protein, motif, module) => behaviour rules Kinetics/step function/Boolean variables scale up to large networks

Challenge: Emergence Coherent behaviour of cells emerges from interactions between a large number of system components – proliferation, cell death, resistance to drugs ‘Computational’ definition of emergence: Unspecified properties and behaviours arise from interaction between agents rather than as a consequence of a single agent’s actions Methods for analysis needed e.g. for therapy target discovery

Detecting event patterns in time A simple event is a state transition due to a rule execution A complex event is made up of a set of interrelated simple events Classification of complex events in a simulation allows one to discover associations between processes at different levels Published formalism available at

Linking network simulations to integrated cell behaviour requires knowledge external to the simulation, the question of ‘biological meaning’ Challenge: ‘the gap’

A new synergy Data generation is still largely motivated by a non-systems-based research paradigm Systems biologists then seek to use these data to build and validate models of systems – with difficulties We need to rethink the relationship between experiment and modelling –both need to proceed within a complex systems framework –new kinds of experiments needed to investigate multi-level relationships in the wet system e. g., global signal network states need to be matched to cell- level phenotypic measurements over time and under a range of conditions E-science systems modelling and experiment need to complement and synergise

Acknowledgements Nuno Rocha Nene (CoMPLEX PhD programme) Chih-Chun Chen (interdisciplinary EPSRC DTA awards) CR UK, Department of Health Published formalism available at Decision support tool for ABM techniques My