Welcome to CARO!
This wiki (hosted on the main NCBO public wiki) will contain information on the new CARO reference ontology of anatomy, combining FMA and model organism anatomical ontologies. How this will be achieved is yet to be decided...
CARO is available from OBO
The OWL version is available at:
A chapter summarizing the current status of CARO and the conclusions drawn from the NCBO anatomy workshop in September, 06, is available here:
This chapter is being published in a book on Anatomy Ontologies:
Anatomy Ontologies for Bioinformatics: Principles and Practice Albert Burger, Duncan Davidson and Richard Baldock (Editors)
Please email the anatomy listserve with suggestions and comments.
Draft Versions (previous)
Version below is being published in a book on Anatomy ontologies, edited by Richard Baldock, Duncan Davidson, and Albert Burger. CAROtest8.obo
- CARO (not in use)
- OBO Cell
The following list may also be of interest
Seattle 09/06 presentations
Please see the shared materials page for meeting minutes and presentations:
This is intended as a source of background reading material primarily for the workshop participants. Please help and add more!
(posted by Melissa Haendel)
Neural tube development:
The vertebrate nervous system begins its development as a neural plate, which then "rolls up" into the neural tube (this is very simplified -there are a variety of mechanisms to get from a plate to a tube). The neural tube develops from the neural plate in a generally anterior to posterior direction. At any given time during this transition, both exist. A picture of this can be seen here: http://www.sciencemuseum.org.uk/on-line/lifecycle/11.asp
An annotation example could be that at a given stage, gene x is in neural tube but not neural plate, gene y is in both, and gene z is in neural plate but not neural tube.
[details of the problems of encoding this in an ontology of anatomical continuants to follow shortly (ds)]
Lateral line development:
The lateral line placode gives rise to two entities, the lateral line ganglion and the lateral line primordium. A portion of cells in the placode move away posteriorly as the primordium, and the remaining portion of the placode will become the ganglion. The primordium deposits neuromasts as it travels posteriorly. These neuromasts will eventually be connected together by way of the lateral line nerve, which has its cell bodies in the ganglion and sends signals to the brain. The nerve and the neuromasts and the ganglion are are collectively referred to as the lateral line. This term is often used before the process is complete. Here is a picture:
Early urogenital development (posted by MAH for Jonathan Bard and Stuart Aitken)
This informal text description of the early urogenital system tries to link the developmental anatomy (tissues) with their associated cell types to (1) the underlying processes underpinning development and (2) the changes in differentiation that give rise to new cells types. The description uses DEFINED TIME SLOTS (from Theiller stages (TS) = 12h here, partly for standardization and partly as this is the granularity of GXD, the mouse gene-expression database). A simplified graphical version is given at the end.
It is also worth noting that, in principle at least, each time-dependent tissue, cell type and developmental process can be assigned an EMAP, CL or GO ID, and the tissues can be linked to the GXD database to give gene expression data. It is thus relatively straightforward to produce a complete systems description of the molecules, cell types, tissues and processes that enable the intermediate mesenchyme to produce the gonad and the metanephros.
See also RO:Main_Page, the main RO wiki
As we're in the business of carving up reality, this paper of Barry's might be useful:
A Reference Ontology for Bioinformatics: "The Foundational Model of Anatomy" Rosse, Cornelius and Mejino, Jose L V (2003) A Reference Ontology for Bioinformatics: The Foundational Model of Anatomy. Journal of Biomedical Informatics 36:pp. 478-500
Mejino JLV Jr, Rosse C. 2004. Symbolic modeling of structural relationships in the Foundational Model of Anatomy. In Proceedings: First International Workshop on Formal Biomedical Knowledge Representation (KR-MED 2004), Whistler Mountain, B.C., Canada; pp 48-62.
Mejino, Jose L V, Agoncillo, Augusto V, Rickard, K. L. and Rosse, Cornelius (2003) Representing Complexity in Part-Whole Relationships within the Foundational Model of Anatomy. In Proceedings, American Medical Informatics Association Fall Symposium, pages pp. 450-454.
Barry Smith, Jose L.V. Mejino Jr., Stefan Schulz, Anand Kumar and Cornelius Rosse, “Anatomical Information Science”, in A. G. Cohn and D. M. Mark (eds.), Spatial Information Theory. Proceedings of COSIT 2005 (Lecture Notes in Computer Science), Berlin/Heidelberg/New York: Springer, 149–164.
Michael, J. and Mejino, Jose L V and Rosse, Cornelius (2001) The Role of Definitions in Biomedical Concept Representation. In Proceedings, American Medical Informatics Association Fall Symposium, pages pp. 463-467.
Ingvar Johansson, Barry Smith, Katherine Munn, Nikoloz Tsikolia, Kathleen Elsner, Dominikus Ernst, and Dirk Siebert, "Functional Anatomy: A Taxonomic Proposal” Acta Biotheoretica, 53(3), 2005, 153–166. http://ontology.buffalo.edu/medo/Functional_Anatomy.pdf
also on the static versus dynamic see:
Pierre Grenon, Barry Smith and Louis Goldberg, “Biodynamic Ontology: Applying BFO in the Biomedical Domain”, in D. M. Pisanelli (ed.), Ontologies in Medicine: Proceedings of the Workshop on Medical Ontologies, Rome October 2003 (Studies in Health and Technology Informatics, 102 (2004)), Amsterdam: IOS Press, 2004, 20–38. http://ontology.buffalo.edu/medo/biodynamic.pdf