1. EMBL-EBI Integration of Sequence and 3D structure Databases “The key to Bioinformatics is integration, integration, integration” Bioinformatics: Bringing it all together technology feature, M. Chicurel,Nature 419,751, 2002

2. EMBL-EBI “ Coordinates by themselves just specify shape and are not necessarily of intrinsic biological value, unless they can be related to other information ” Integrative database analysis in structural genomics, Mark Gerstein, Nature Structural Biology 7, 960, 2000 “The information management challenge for the future will be to develop new ways to acquire, store and retrieve not only biological data per se, but also those data in the context of biological knowledge” Biological Databases and Informatics Program Announcement NSF 02-058 “Only the development of integrated bioinformatics systems will enable the manipulation of complex biological information” Editorial, Bioinformatics 18 (12), 1551, 2002

4. EMBL-Bank DNA sequences EnsEMBL Human Genome Gene Annotation Uniprot Protein Sequences EMSD Macromolecular Structure Data Array-Express Microarray Expression Data

5. EMBL-EBI  Integration With Uniprot  eFamily Project  Future Plans

6. EMBL-EBI UniProt (Universal Protein Resource) is the world's most comprehensive catalogue of information on proteins. It is a central repository of protein sequence and function created by joining the information contained in Swiss-Prot, TrEMBL, and PIR. Integration With UniProt http://www.ebi.ac.uk/uniprot/index.html

7. EMBL-EBI MSD / UniProt: UniProtMSD Agreed common mechanism for exchange of information. Services Two Different Database Systems “One of the major benefits of using databases for data storage is for data sharing”

8. EMBL-EBI  Collaboration between MSD (Sameer Velankar, Phil McNeil) and UniProt (Virginie Mittard, Daniel Barrell) groups  Depends upon  Clean UniProt (UNP) cross references in the DBREF records for each chain (where possible)  Clean taxonomy ids for each PDB chain  Taxonomy for PDB Source and UniProt OS must be the same MSD/Uniprot Collaboration

9. EMBL-EBI  Cleanup of the DBREF records in the PDB entries  Cleanup of the UniProt cross references in PDB entries  Cleanup of Source Information  NCBI Taxonomy IDs  Cleanup of the Reference information  Update UniProt entries  Source, Reference, Secondary structure information  Supply Additional Information  revision date, experimental method, resolution, R-factor  Residue-by-residue mapping between MSD and UniProt enables chimaeras to be handled correctly

10. EMBL-EBI Sequence Schema

11. EMBL-EBI Residue by Residue Mapping to UniProt PDBCHAINUNPSERIALPDB_RESPDB_SEQUNP_RES ANNOTATION 1HG1AP066081ALA22ANOT OBSERVED 1HG1AP066082ASP23DNOT OBSERVED 1HG1AP066083LYS24KNOT OBSERVED 1HG1AP0660844LEU25L 1HG1AP0660855PRO26P 1HG1AP0660866ASN27N 1HG1AP0660877ILE28I 1HG1AP0660888VAL29V 1HG1AP0660899ILE30I 1HG1AP0660810 LEU31L 1HG1AP0660811 ALA32A

12. EMBL-EBI Display of Mappings

13. EMBL-EBI  IntEnz is the name for the Integrated relational Enzyme database and is the most up-to-date version of the Enzyme Nomenclature.  The IntEnz relational database implemented and supported by the EBI is the master copy of the Enzyme Nomenclature data.  MSD uses the UniProt accession code(s) mapped to each chain to link to the IntEnz EC number  This done directly via the MSD and IntEnz Oracle relational databases Integration With IntEnz http://www.ebi.ac.uk/intenz/index.html

14. EMBL-EBI eFamily http://www.efamily.org.uk/ The eFamily project is designed to integrate the information contained in five of the major protein databases.

15. EMBL-EBI  To integrate the information contained in the five major protein databases.  The member databases (CATH, SCOP, MSD, Interpro, and Pfam) contain information describing protein domains.  For SCOP, CATH and MSD the data is primarily concerned with 3D structures  In InterPro and Pfam the focus is mainly on the sequences.  It is often difficult for biologists to navigate from protein sequence to protein structure and back again.  eFamily aims to provide the scientific community with a coherent and rich view of protein families that allow users seamlessly to navigate between the worlds of protein structure and protein sequence, by improved data resources and integration via grid technologies. eFamily Core Activities

16. EMBL-EBI UniProt GO InterPro GO PROSITE SCOP Pfam CATH GO Curated Common Domains definition HMM prediction Curated Mapping & curation Mapping per residue Mapping start – end MSD mapping Residues/Sequence DATA INTEGRATION

17. EMBL-EBI InterPro-UniProt(s) UniProt-PDBCHAIN(S) CATH/SCOP DOMAIN PDBCHAIN(S) InterPro-CATH/SCOP CATH/SCOP DOMAIN UniProt Complexity of Mappings  An InterPro entry is a collection of one or more UniProt entries  Unlike PDB concept of CHAIN does not exist in UniProt  UniProt entry is always numbered from 1 to N  PDB SEQRES Residue numbering is from 1 to N  PDB CHAIN (ATOM Records) Residue numbering is not necessarily 1 to N  UniProt to PDB Mapping can be one to many  PDB CHAIN to UniProt Mapping can be one to many

18. EMBL-EBI SCOP Domain PDB Residue Range Chains Swiss-Prot Residue Range MSD-SCOP Mapping for 1cbw

19. EMBL-EBI MSD-CATH Mapping for 1cbw CATH Domains PDB Residue Range Chains Swiss-Prot Residue Range

20. EMBL-EBI MSD-Pfam Mapping for 1cbw Pfam DomainPDB Residue Range Chains Swiss-Prot Residue Range

21. EMBL-EBI Practical Applications of Database Integration

22. EMBL-EBI Mappings Used in Pfam  Pfam now uses UniProt to structure mapping from MSD Search Database  Saves duplication of effort and weeks of compute  Use mapping for annotation of alignments Pfam domains highlighted on structure of RuBisCo (8ruc)

23. EMBL-EBI Mappings Used in Interpro

24. EMBL-EBI Mappings Used in SCOP

25. EMBL-EBI Comparison of SCOP, CATH and Pfam Domains SCOP, CATH and Pfam have developed web-services for describing their particular domain families. These services can be queried with a protein identifier, protein accession or PDB identifier. The databases use the MSD/UniProt mapping to translate between the sequence and structure domains

26. EMBL-EBI XML & Web Services The eFamily project has developed a XML schema to describe:  Domains  Annotation  Sequence Alignments  Structure Alignments This will be used to provide web-services as part of the eFamily project. More information about the XML schema is available at - http://www.efamily.org.uk/xml/efamily/documentation/efamily.shtml We are also developing a perl based API for the eFamily XML which will be available from eFamily site as well as via bio-perl. The MSD residue-by-residue mapping is made available in XML format based on the eFamily schema.

27. EMBL-EBI Future Plans

28. EMBL-EBI Mapping Annotation

29. EMBL-EBI

30.  Makes use of cleaned-up cross-reference & taxonomy data, SEQRES and ATOM/HETATM records from the PDB and the sequence from the UniProt entry to align and map each residue.  Makes connected segments from the PDB ATOM/HETATM records for each chain  These are then aligned against the SEQRES records and all the alignments for the segments are merged to get the SEQRES-ATOM alignment  This enables any unobserved residues to be considered Residue Mapping Program 1

31. EMBL-EBI  A similar operation is performed on the UniProt sequence and connected segments from the ATOM/HETATM records to get the UNP-ATOM alignment  The SEQRES-ATOM and UNP-ATOM alignments are then merged to get the final alignment  This is repeated for each chain in the PDB archive (with a UNP cross-reference  The mapping is loaded into the MSD relational database and validated Residue Mapping Program 2

32. EMBL-EBI Integrating data from MSD into CATH  Protocols have been developed for regular imports of a subset of MSD data warehouse into a local CATH database set up in ORACLE 9i  For example, information on the biological unit and on protein-ligand interactions will be integrated to increase functional annotations for CATH domain families

33. EMBL-EBI Two step process of data synchronisation  Data are moved from the MSD search database to the CATH-UCL site using a combination of Oracle Export/Import and SQL*Loader utilities  Subsequent updates in the MSD database are pushed to the CATH site using an incremental replication mechanism.  Data from the CATH site are pushed to the MSD site, using the same two step process  The two databases are synchronised MSD & CATH Data Exchange

34. EMBL-EBI  Structure  SCOP  CATH  Sequence  UniProt (neé Swiss-Prot /Trembl/PIR), InterPro, Go, Pfam  Function  IntEnz  Literature  Medline