Slides prepared for BIRN ONTOLOGY WORKSHOP (slimmed down version) Stanford Feb. 2006 Barry Smith.

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Presentation transcript:

Slides prepared for BIRN ONTOLOGY WORKSHOP (slimmed down version) Stanford Feb Barry Smith

These are the kinds of queries BIRN’s ontology resources are supposed to help with –Find all datasets of schizophrenics with structural and functional imaging data related to working memory –Find the correlation between hippocampal volume and working memory performance in AD subjects

Memory CVLT SIRP Assessment Behavioral Paradigm Cognitive Process Attention Working memory Long Term memory SCID-Patient Breathhold Action This is what they were doing in early 2006 My question: Can we reason on the basis of a graph of this sort?

Bonfire Relations relation: the type of relation between the concept to the left and the concept to the right PAR = Parent CHD = Child SIB = Sibling RB = Broader Relationship RN = Narrower Relationship RO = Other Relationship They should have replaced these with well-defined formal relations from

BIRN Relations UMLS (PAR, CHD, RN, RO, RB, SY). RB: has a broader relationship RN: has a narrower relationship RO: has relationship other than synonymous, narrower, or broader CHD: has child relationship in a Metathesaurus SIB: has sibling relationship in a Metathesaurus source vocabulary They should have replaced these with well-defined formal relations

Areas where application ontologies will be needed Participant demographics such as age, gender, … Clinical and psychiatric information –Assessments used, data type –Diagnostic information Behavioral data during fMRI tasks –Need to know how to interpret that (“is a button 1 response a yes or a no?”) Raw structural and functional images –Need information about data collection and preprocessing methods Single-subject and group level analyses and results –Need information about analytic methods used OBI is supposed to help here:

Ontology/Terminology Infrastructure In addition, the ontology will provide a semantic network; for a user searching for “memory" information, related information would include –Cognitive terms, e.g., recall, recognition, short and long term memory –Assessment terms, e.g., California Verbal Learning Test –“Disorders of” terms, e.g., Alzheimer’s disease is a disorder of memory The problem here: How will they block information overload?

BIRN’s relies on Neuronames Since univocity is not enforced in the literature of neuroanatomy, e.g. the term ‘Basal ganglia’ represents different structures when used in association with anatomic, functional and clinical views. The problem here: How will BIRN resolve or clarify this?

Neuronames gives no explicit definitions, and the representations it gives (e.g. of the Fourth Ventricle*) are often at odds with consensual usage hence scalability, extendability, combinability with other ontologies is limited – how then can it be used to bridge research efforts at the genomic / proteomic level with those at the clinical level? Information unique to neuroanatomical entities such as axonal input/output relationships, connectivity, neuron type, neurotransmitter and receptor types are indispensable in establishing and understanding both structural and physiological relationships among neuroanatomical entities and their relationship with the rest of the body.

BIRNLex (in early 2006) The eye =def. The eyeball and its constituent parts, e.g. retina mouse =def. common name for the species mus musculus have these problems been fixed?

BIRNLex have these problems been fixed?

BIRNLex have these problems been fixed?

BIRNLex have problems in use of ‘Finding’ been fixed? a tree is a finding!

BIRNLex how have they solved the problem of making their ontology interoperable with other ontologies

BIRNLex bear in mind always that this ontology needs to be interoperable with other ontologies

BIRNLex surface =def 3D segmentation obtained by fitting a polygonal mesh around the boundary of an object of interest, creating a 3D surface Concept =def Generic ideas or categories derived from common properties of objects, events, or qualities, usually represented by words or symbols mixture of singular and plural nouns

BIRNLex brain imaging =def none; synonymous with positrocephalogram, nos [‘not otherwise specified’] CA1 =def CA1 cytoarchitectonic field of hippocampus cognitive process = def. conceptual function or thinking in all its forms typical mistakes inherited from UMLS

BIRNLex and UMLS-SN Rest =SN Daily or Recreational Activity Principal Investigator =SN Professional or Occupational Group Left handedness =SN Organism Attribute Ambidextrous =SN Finding Brain Imaging =SN Diagnostic Procedure Brain Mapping =SN Diagnostic Procedure & Research Activity Healthy Adult =SN Finding typical mistakes inherited from UMLS

BIRNLex typical mistakes inherited from UMLS

Anatomical Knowledge Sources Foundational model of anatomy Neuronames (Brain Info)*** BAMS*** Adult Mouse Anatomical Dictionary (Edinburgh/GO) “Although BIRN is an open, diverse and fluid environment, the use of ontologies for enhanced interoperability will be pointless if we allow random use of ontologies. The OTF recommends that there be a set of ontologies that are approved for use and a set of policies and procedures for adding or creating additional knowledge sources. Current knowledge sources that are currently in use include UMLS, GO, LOINC, SNOMED, NEURONAMES.” -OTF report to BEC 8/05 the problem is that UMLS is a ragbag of good and (mostly) bad; it is not internally coherent; see for the alternative approachhttp://obofoundry.org