+ All Categories
Home > Science > Using graphs to decipher complexity of health and disease

Using graphs to decipher complexity of health and disease

Date post: 24-Jun-2015
Category:
Upload: edgeleap
View: 654 times
Download: 2 times
Share this document with a friend
Description:
EdgeLeap's presentation at the Graph Database Meetup Amsterdam, 5 November 2014 where we showed applications of graphs and Neo4J in life sciences research.
Popular Tags:
18
www.edgeleap.com Thomas Kelder, PhD [email protected] Using graphs to decipher complexity of health and disease Graph Database Meetup, Amsterdam, 5 November 2014 This presentation remains property of EdgeLeap B.V. and is licensed for reuse under a Creative Commons Attribution 4.0 International License (see http://creativecommons.org/licenses/by/4.0/).
Transcript
Page 1: Using graphs to decipher complexity of health and disease

www.edgeleap.com

Thomas Kelder, PhD

[email protected]

Using graphs to decipher

complexity of health and disease

Graph Database Meetup, Amsterdam, 5 November 2014

This presentation remains property of EdgeLeap B.V. and is licensed for reuse under a Creative Commons Attribution 4.0 International License (see http://creativecommons.org/licenses/by/4.0/).

Page 2: Using graphs to decipher complexity of health and disease

www.edgeleap.com

GRAPHS @ EDGELEAP

Page 3: Using graphs to decipher complexity of health and disease

www.edgeleap.com

Diameter of the World-wide WebAlbert, Jeong and Barabási, Nature 1999

Page 4: Using graphs to decipher complexity of health and disease

www.edgeleap.com

PERSONAL HEALTH IS COMPLEX

Organs

Person

Cells

10010110011010111011001010110111010101101010011010000101011011000010101011010010011111000101010110100010001010111011001011001101011101100101011011101010110101001101000010101101100001010101101001001111100010101011010001000101011101100101100110101110110010101101110101011010100110100001010110110000101010110100100111110001010101101000100010101110110010110011010111011001010110111010101101010011010000101011011000010101011010010011111000101010

DATA!

Page 5: Using graphs to decipher complexity of health and disease

www.edgeleap.com

IMAGINE POPULATION HEALTH!

Page 6: Using graphs to decipher complexity of health and disease

www.edgeleap.com

ITERATIVE DISCOVERY

INTERVENE

UNDERSTAND

VISUALIZE

MINE

INTEGRATE

MEASURE

Page 7: Using graphs to decipher complexity of health and disease

www.edgeleap.com

GRAPH OF DISEASES

Page 8: Using graphs to decipher complexity of health and disease

www.edgeleap.com

GRAPH OF ADIPOSE HEALTH

Kelder, et al., Genes & Nutrition (2014), in press

Page 9: Using graphs to decipher complexity of health and disease

www.edgeleap.com

NEO4J IN BIOLOGY

CyNeo4J by Georg Summerhttp://cyneo4j.wordpress.com/

Storage & Calculation Analysis & Visualization

Page 10: Using graphs to decipher complexity of health and disease

www.edgeleap.com

PHARMA CASE:

TARGET PRIORITIZATION

• Target prioritization for drug development

• Narrow down from >1000 potential targets to ~10 best candidates

• Make smart choice, account for complex underlying biology!

• Biological context

• Centrality

• Affected processes

• Druggability

Page 11: Using graphs to decipher complexity of health and disease

www.edgeleap.com

REACTOME PATHWAY DATABASE

• Known biological pathways

• Relational database

• Complex data model (249 tables)

• Model pathways, events, proteins as graph

• 1,597 signaling pathways

• 7,597 unique proteins

• 6,467 reactions

Page 12: Using graphs to decipher complexity of health and disease

www.edgeleap.com

EXAMPLE:

SIGNALING PATHWAYS

Signal input

Effect

Page 13: Using graphs to decipher complexity of health and disease

www.edgeleap.com

PATHWAY IN NEO4J

Page 14: Using graphs to decipher complexity of health and disease

www.edgeleap.com

PROXIMITY BY SHORTEST PATH

Page 15: Using graphs to decipher complexity of health and disease

www.edgeleap.com

PROXIMITY FOR ALL PROTEINS

Page 16: Using graphs to decipher complexity of health and disease

www.edgeleap.com

REAL LIFE EXAMPLE

16

Random

Classical bioinformatics

Prioritization based ongraph models

Benchmark prioritization techniques by recovery of known relevant genes.

Page 17: Using graphs to decipher complexity of health and disease

www.edgeleap.com

PEAK INTO THE FUTURE

JAN FEB MAR APR MAY JUN

Page 18: Using graphs to decipher complexity of health and disease

www.edgeleap.com

THANKS!

[email protected]

www.edgeleap.com

edgeleap

@EdgeLeap

Marijana RadonjicEdgeLeap

Georg SummerUM & TNO


Recommended