Representing the Immune Epitope Database in OWL Jason A. Greenbaum 1, Randi Vita 1, Laura Zarebski 1, Hussein Emami 2, Alessandro Sette 1, Alan Ruttenberg.

Slides:



Advertisements
Similar presentations
Antigen Presentation K.J. Goodrum Department of Biomedical Sciences Ohio University 2005.
Advertisements

RDB2RDF: Incorporating Domain Semantics in Structured Data Satya S. Sahoo Kno.e.sis CenterKno.e.sis Center, Computer Science and Engineering Department,
Adaptive Immunity 1.Vertebrates only 2.Specificity - recognition modules - BCR, Ab and TCR - gene rearrangement is the source of diversity - clonal selection.
CENTER FOR BIOLOGICAL SEQUENCE ANALYSIS Department of Systems Biology Technical University of Denmark Immunological Bioinformatics Introduction to the.
Lecture outline The nomenclature of Immunology
What is an ontology and Why should you care? Barry Smith with thanks to Jane Lomax, Gene Ontology Consortium 1.
Informatics Support for Vaccine Projects Using and extending the UCSC bioinformatics infrastructure.
Using Ontologies to Represent Immunological Networks Lindsay G. Cowell, Anne Lieberman, Anna Maria Masci Duke University Center for Computational Immunology.
Ontology development for the Immune Epitope Database Bjoern Peters La Jolla Institute for Allergy and Immunology.
A LOOMING CRISIS: MAINTAINING ACCESS TO ELECTRONIC RESEARCH PRODUCTS Daphne Fautin University of Kansas Gail Kampmeier Illinois Natural History Survey.
General Microbiology (Micr300)
How to Organize the World of Ontologies Barry Smith 1.
1 How T cells recognize antigen: The T Cell Receptor (TCR) Lecture 11, MCB 150 Laurent Coscoy.
Specific Immune Defense. Antigens Antibody-generator, Non-self, Large molecules Properties: ◦1. Immunogenicity ◦2. Reactivity Antigenic determinant or.
T Cell Receptor (TCR) & MHC Complexes-Antigen Presentation
Towards an Autoimmune Disease Ontology Alexander D. Diehl 6/13/12.
Immunogen, antigen, epitope, hapten
Team CDK Daniel Packer Rafael Rodriguez Sahat Yalkabov.
Computational Biology and Informatics Laboratory Development of an Application Ontology for Beta Cell Genomics Based On the Ontology for Biomedical Investigations.
Lecture 14 Immunology: Adaptive Immunity. Principles of Immunity Naturally Acquired Immunity- happens through normal events Artificially Acquired Immunity-
1 Enhancing Organism Based Disease Knowledge Using Biological Taxonomy, and Environmental Ontologies Ken Baclawski Northeastern University Neil Sarkar.
1 Introduction to Database Systems. 2 Database and Database System / A database is a shared collection of logically related data designed to meet the.
Open Biomedical Ontologies. Open Biomedical Ontologies (OBO) An umbrella project for grouping different ontologies in biological/medical field –a repository.
Chapter 17: Adaptive Immunity: Specific Defenses of the Host
Leveraging Ontologies for Human Immunology Research Barry Smith, Alexander Diehl, Anna- Maria Masci Presented at Leveraging Standards and Ontologies to.
DAVID R. SMITH DR. MARY DOLAN DR. JUDITH BLAKE Integrating the Cell Cycle Ontology with the Mouse Genome Database.
Integrating the Cell Cycle Ontology with the Mouse Genome Database David R. Smith Mary Dolan Dr. Judith Blake.
Review: Cells of the Immune System From Larsson and Karlsson (2005)
DAVID R. SMITH DR. MARY DOLAN DR. JUDITH BLAKE Integrating the Cell Cycle Ontology with the Mouse Genome Database.
Immunol mol med 2 Conleth Feighery This lecture ….. Importance of lymphocytes in immune system Identification of T and B cells How these cells bind.
Lecture #10 Aims Describe T cell maturation and be able to differentiate naïve and effector T cells. Differentiate the development and functions of Th1.
T-cell & B cell receptors – role in immune response & Major Histocompatibility Complex (MHC) Lecture 6 4/10/2015.
Antigen Presentation/Cell cooperation in Antibody response Pin Ling ( 凌 斌 ), Ph.D. ext 5632; References: 1. Male D., J. Brostoff,
Immunotherapy By: Ray & Kelly Lewis David Duke Catherine Hanson Richard Hildreth.
12/7/2015Page 1 Service-enabling Biomedical Research Enterprise Chapter 5 B. Ramamurthy.
Master headline RDFizing the EBI Gene Expression Atlas James Malone, Electra Tapanari
Mining the Biomedical Research Literature Ken Baclawski.
Metadata By N.Gopinath AP/CSE Metadata and it’s role in the lifecycle. The collection, maintenance, and deployment of metadata Metadata and tool integration.
Proposed Research Problem Solving Environment for T. cruzi Intuitive querying of multiple sets of heterogeneous databases Formulate scientific workflows.
T Cell Receptor (TCR) & MHC Complexes-Antigen Presentation Pin Ling ( 凌 斌 ), Ph.D. ext 5632; References: 1. Abbas, A, K. et.al,
Immunology 2 nd Med 2009 Some revision points Con Feighery.
EBI is an Outstation of the European Molecular Biology Laboratory. Tutorial 5: ChEBI - On-line Submission and Curation.
Lecture 6 clinical immunology Cytokines
Cytokines are a diverse group of non- antibody proteins released by cells that act as intercellular mediators, especially in immune processes.
Immunology Ontology Workshop Buffalo, NY June 11-13, 2012.
Building Ontologies with Basic Formal Ontology Barry Smith May 27, 2015.
WonderWeb. Ontology Infrastructure for the Semantic Web. IST WP4: Ontology Engineering Heiner Stuckenschmidt, Michel Klein Vrije Universiteit.
The Cardiovascular Disease Ontology (CVDO) Mercedes Arguello Casteleiro 1, Julie Klein 2 and Robert Stevens 1 1 School of Computer Science, University.
Chapter Pgs Objective: I can describe how adaptive immunity (immunological memory) works. Challenging but cool, like a Rube Goldberg.
Immune Epitope Database assays. Standard immune epitope definition Classical (textbook) definition: An epitope, also known as antigenic determinant, is.
T-cell & B-cell receptors – Role in the Immune Response
GENERAL IMMUNOLOGY PHT 324
Randi Vita, M.D. Better living through ontologies at the Immune Epitope Database La Jolla Institute for Allergy & Immunology Division of Vaccine Discovery.
T cell receptor & MHC complexes-Antigen presentation
Adaptive immunity antigen recognition Y Y Y Y Y Y Y Y Y invading
Development of the Amphibian Anatomical Ontology
Immunology Ch Microbiology.
Immune system-Acquired/Adaptive immunity
The Major Histocompatibility Complex (MHC)
Ontology Evolution: A Methodological Overview
Adaptive Immune System
T cell mediated immunity
Ontology of biomedical investigations (OBI)
Adaptive Immune System
Adaptive Immune System
A Roadmap for the Immunomics of Category A–C Pathogens
Collaborative RO1 with NCBO
Alessandro Sette, Sinu Paul, Kerrie Vaughan, Bjoern Peters 
Service-enabling Biomedical Research Enterprise
Presentation transcript:

Representing the Immune Epitope Database in OWL Jason A. Greenbaum 1, Randi Vita 1, Laura Zarebski 1, Hussein Emami 2, Alessandro Sette 1, Alan Ruttenberg 3, and Bjoern Peters 1 1 La Jolla Institute for Allergy and Immunology 2 Science Applications International Corporation 3 Science Commons

Overview Background –Immune epitopes –Epitope mapping experiments –The Immune Epitope Database (IEDB) IEDB development cycle –Ontology development –Database design –Content curation Database export into OWL

Mouse Virus cell CD8 + T cell epitopes in viral infection MHC-I

cell MHC-I T Cytokine Release Cytotoxicity T T Proliferation Mouse TCR CD8 CD8 + T cell epitopes in viral infection Virus epitope role: the role of a material entity that is realized when it binds to an adaptive immune receptor. Context is key – What immune receptor? What host? What happened to the host previously (infections? vaccinations? diseases?)… adaptive immune response: a GO:immune response resulting from epitope binding by adaptive immune receptor

Entities in a epitope mapping experiment T APC T Data items –spot count –spot forming cells per million Processes –Administering substance in vivo –Take sample from organism –Perform ELISPOT assay –Transform data Material entities –Cell –Organism –Peptide Roles and Functions –Immunogen –Antigen –Antigen presenting cell –Effector cell 42 SFC/10^6

Goal: To catalog and make accessible immune epitope characterizing experiments IEDB Literature curation Epitope discovery contract submission The Immune Epitope Database (IEDB) 10 full time curators Content >6,500 journal articles >50,000 epitopes >300,000 experiments Completed: 98% infectious disease 95% allergy Next: autoimmunity (25%)

Example curated experiment: typically 100 – 300 fields

Summary I Immune epitopes are the molecular entities recognized by adaptive immune receptors The IEDB catalogs experiments defining immune epitopes  Large amounts of complex data, which poses challenges for data consistency

Overview Background –Immune epitopes –The Immune Epitope Database (IEDB) IEDB development cycle –Ontology development –Database design –Content curation Database export into OWL

Development cycle Ontology development identify entities and relations Database design table structure lookup table values validation rules Content curation add new content recurate invalid content

Ontology development (ONTIE) Re-use terms from OBO foundry candidate ontologies Native ONTIE terms for entities specific for epitopes  Goal is to find a good home for them Imports from: Gene Ontology Cell Ontology ChEBI, NCBI Taxonomy OBI Protein Ontology Information Artifact Ontology Partial high-level ‘is a’ hierarchy Available:

Database design / implementation Ontology terms | Database tables History: initial design (to get started) iterative updates (to fix things) redesign from scratch for 2.0 because we (still) can Tables aligned with ontology  Improved understanding between software engineers and domain experts  ‘ontologic normalization’

Content migration and re-curation IEDB 1.0 Rule based validation first pass: 693,133 inconsistencies 1.conditional field-to-field mapping 2.script based re-curation (SQL) IEDB manual recuration (web interface)

Summary II Application specific ontology (ONTIE) developed based on OBO foundry principles, and relying heavily on OBI Database re-designed and structure aligned with the ontology Data migrated and consistency enforced by rule based validation engine

Overview Background –Immune epitopes –The Immune Epitope Database (IEDB) IEDB development cycle –Ontology development –Database design –Content curation Database export into OWL

Subset of IEDB 2.0 Database export into OWL

Advantages of OWL export Allows to directly use ontology and OWL reasoner to perform consistency checks Provides expressive query language within the IEDB Enables query across integrated biomedical databases.

Future Work Provide IEDB in triple store / access through SPARQL queries Complete ontology development and OWL export for all data in the IEDB Overcome technical challenges (Pellet takes 1 minute to classify 100 assays; 300,000 in IEDB…) Overcome ontological challenges (cells, peptides, negative data, …)

IEDB Team - SAIC Scott Stewart Tom Carolan Hussein Emami San Diego Supercomputer Center Phil Bourne Julia Ponomarenko Zhanyang Zhu Technical University of Denmark Ole Lund Morten Nielsen University of Copenhagen Søren Buus La Jolla Institute for Allergy & Immunology THANKS! OBI Consortium - Alan Ruttenberg – Science Commons