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activities:theme3 [2010/11/17 11:38] ocommowi |
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- | <html> <div class="pageTitle"> Management of information in neuroimaging </div></html> | + | <html> <div class="pageTitle"> Conceptual modelling and creation of formal ontologies (CMCFO) for Surgical Knowledge and Processes |
+ | <br> | ||
+ | Leader: B. Gibaud </div></html> | ||
- | ====== Involved researchers ====== | + | ====== Currently involved researchers ====== |
- | \\ | + | [[:members:bernard.gibaud:index|Bernard Gibaud]], [[:members:tristan.moreau:index|Tristan Moreau]], [[:members:bacem.wali:index|Bacem Wali]], , [[:members:pierre.jannin:index|Pierre Jannin]], [[:members:xavier.morandi:index|Xavier Morandi]] |
- | [[:members:christian.barillot:index|Christian Barillot]], [[:members:germain.forestier:index|Germain Forestier]], [[:members:bernard.gibaud:index|Bernard Gibaud]], [[:members:franck.michel:index|Franck Michel]], [[:members:tristan.moreau:index|Tristan Moreau]], [[:members:guillaume.renard:index|Guillaume Renard]], [[:members:bacem.wali:index|Bacem Wali]] | + | |
- | ====== Short summary ====== | + | ====== Introduction ====== |
- | \\ | + | In this axis, we study the use of conceptual modelling and ontological approaches for building models of symbolic information and knowledge in surgery. This is crucial in the surgical and interventional decision making process, because it allows to articulate generic and specific models on a common conceptualization of the entities we are dealing with. In our field, this concerns for example the anatomical structures involved in surgery, their specific role (i.e. targeted area to be removed, treated or stimulated, areas to be avoided during the intervention, and reference areas), the instruments used to explore such function or dysfunction (e.g., neuropsychological tests), the surgical procedures and the multiple actions composing it, the surgical tools and medical devices involved in surgery, as well as their relations to the patient anatomy. Modelling of symbolic knowledge addresses three kinds of challenges: 1) to express this knowledge in a form that can be processed by both humans and automated systems; 2) to express a consensus about a vocabulary and shared semantics within a community of people, allowing information referring to it to be successfully shared – within and across different domains; and finally 3) to exploit this formal representation in the context of various processing contexts, such as database querying (in both centralized and federated systems), interpretation and semantic annotation of data, and finally for surgical or interventional decision support. |
- | Our vision is illustrated on the figure below. It consists in annotating image data and all features derived from this data (imaging biomarkers, patient specific models) in reference to domain ontologies that will make their semantics explicit. This will facilitate wide-scale intra- et inter-domain sharing and re-use of the data, as needed in modern translational research, thanks to semantic web technologies and mediation infrastructures based on these technologies. | + | |
- | \\ | + | ====== Description of the proposed research and hypotheses ====== |
- | \\ | + | |
- | {{:infomanagement.jpg?650 | }} | + | Our specific approach consists in relying on ontologies and other semantic web technologies, for two major reasons. The first is that the semantic web languages (primarily RDF/RDFS and OWL, but also SWRL for representing rules) are logic-based knowledge-representation formalisms. Therefore they are suitable to represent complex knowledge. Many powerful reasoning systems are now available, that « understand » the knowledge captured in these ontologies (25). The second reason is that such languages have been designed to share information in the web, with an « open» philosophy. This allows the successful aggregation of knowledge coming from various origins, assuming that some common philosophical foundations are shared (26,27). This openness is fundamental to enable reasoning involving data and knowledge from multiple sites and domains. |
- | \\ | + | |
- | \\ | + | Two major different topics have been reached in the period: |
- | \\ | + | |
- | Our works address two basic aspects of this vision : the design of mediation infrastructures, and the semantic annotation of images. Two major different topics have been reached in the period: | + | |
* Sharing of data and sharing of processing tools in neuroimaging (Neurobase and Neurolog projects)} which led to build a suitable architecture to share images and processing tools, started from the NeuroBase project (supported by the French Ministry of Research), and pursued by the Neurolog project (project supported by ANR) [[:activities:theme3:research_areas|More ...]] | * Sharing of data and sharing of processing tools in neuroimaging (Neurobase and Neurolog projects)} which led to build a suitable architecture to share images and processing tools, started from the NeuroBase project (supported by the French Ministry of Research), and pursued by the Neurolog project (project supported by ANR) [[:activities:theme3:research_areas|More ...]] | ||
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====== Major collaborations ====== | ====== Major collaborations ====== | ||
- | \\ | + | * **Both Neurobase and Neurolog** are collaborative ANR projects. The partners with whom we have the tightest relations are: I3S (Sophia) and Business Objects, for WP1 and WP4; MIS (Amiens), GIN (Grenoble) and Pitié-Salpêtrière (Paris) for WP2; GIN (Grenoble) and Pitié-Salpêtrière (Paris) for WP5. |
- | * **Both Neurobase and Neurolog** are collaborative ANR projects. The partners with whom we have the tightest relations are: I3S (Sophia) and Business Objects, for WP1 and WP4; MIS (Amiens), GIN (Grenoble) and Pitié-Salpêtrière (Paris) for WP2; GIN (Grenoble) and Pitié-Salpetrière (Paris) for WP5. | + | |
* **Concerning the second topic**, the work was done in collaboration with Christine Golbreich from the University of Versailles Saint Quentin, also member of LIRMM/CNRS in Montpellier | * **Concerning the second topic**, the work was done in collaboration with Christine Golbreich from the University of Versailles Saint Quentin, also member of LIRMM/CNRS in Montpellier | ||
====== Major external supports ====== | ====== Major external supports ====== | ||
- | \\ | ||
* **Concerning the first topic**, the external support for this project was brought by ANR (Agence National de la Recherche), through grant ANR-06-TLOG-024 | * **Concerning the first topic**, the external support for this project was brought by ANR (Agence National de la Recherche), through grant ANR-06-TLOG-024 | ||
* **ANR VIP:** New ANR project accepted in 2009 in collaboration with CREATIS/INSERM Lyon. A significant part of this project deals with ontology development to support the sharing of models, simulated data and the interoperability of simulation software components | * **ANR VIP:** New ANR project accepted in 2009 in collaboration with CREATIS/INSERM Lyon. A significant part of this project deals with ontology development to support the sharing of models, simulated data and the interoperability of simulation software components | ||
- | * **Concerning the second topic**, the work did not receive support from national research agencies, yet. However it received support from INRIA through the “”internship program“” (Abdallah Miladi, Souheil Selmi, Tasnim Bouzgarrou) | ||
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