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    <article-meta>
      <title-group>
        <article-title>A Collaborative Framework for Distributed Scientific Groups</article-title>
      </title-group>
      <contrib-group>
        <contrib contrib-type="author">
          <string-name>Muthukkaruppan Annamalai</string-name>
          <xref ref-type="aff" rid="aff0">0</xref>
        </contrib>
        <contrib contrib-type="author">
          <string-name>Leon Sterling</string-name>
          <email>leon@cs.mu.oz.au</email>
          <xref ref-type="aff" rid="aff0">0</xref>
        </contrib>
        <contrib contrib-type="author">
          <string-name>Glenn Moloney</string-name>
          <email>glenn@physics.unimelb.edu.au</email>
          <xref ref-type="aff" rid="aff1">1</xref>
        </contrib>
        <aff id="aff0">
          <label>0</label>
          <institution>Dept. of Computer Science and, Software Engineering, The University of Melbourne</institution>
          ,
          <addr-line>Victoria 3010, Australia., +61 3 83449100</addr-line>
        </aff>
        <aff id="aff1">
          <label>1</label>
          <institution>School of Physics, The University of Melbourne</institution>
          ,
          <addr-line>Victoria 3010, Australia., +61 3 83445455</addr-line>
        </aff>
      </contrib-group>
      <abstract>
        <p>The potential of collaborative work can be further harnessed if the implicit knowledge in the collaboration documents can be exploited. Together with the Experimental High-Energy Physics (EHEP) community, we are investigating the use of ontologies for scientific collaboration. The EHEP collaborative work revolves around experimental analyses. We propose an intuitive way to establish augmented collaborative experimental analysis documents. The collaboration documents are annotated with appropriate semantic descriptors, linked to ontologies published on the web. Our initiative will necessarily lead the EHEP community to produce and share information innovatively. This development is an epitome of large-scale scientific collaborations and will provide the impetus for a more rapid scientific advance.</p>
      </abstract>
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      <title>-</title>
      <p>3. EXPLICATING THE EXPERIMENTAL
ANALYSES
It is not difficult to see that the problem in the scenario described
above could be traced to lack of structure and semantics in the
published analysis description documents. Debugging an
experimental analysis described by authors who profess somewhat
different ontological commitment about the domain is indeed a
daunting task. We believe this misinterpretation problem can be
safely resolved if an analysis process is described explicitly in
definite terms to peer researchers.</p>
      <p>To begin, we propose the creation of a formal scientific document,
called analyses report, which describes the completed
experimental analyses according to EHEP ontologies in an orderly
manner. A systematic elaboration of the analyses would allow for
a clear and detailed description of the content. Publishing the
analyses with annotations that further enrich its description can
ensure optimal exchange of information between researchers
within a collaboration.</p>
      <p>Moreover, these machine-readable ontologies can also be utilised
to describe analysis jobs. The formal specification of description
can be interpreted runtime by analyser agents to perform the
required data analyses.</p>
      <p>The EHEP ontologies can also be used to mark-up the essential
parts of the publications in open archives, allowing semantic
searches on the collection. Alternately, a publication can now
straightaway point to the relevant experimental analysis reports in
the analysis archive. Accessing relevant publications or
discovering similar experimental analyses will require far less
time and effort.</p>
      <p>
        This opportunity to embark upon an innovative way of handling
scientific information generated within an EHEP collaboration is
illustrated in Fig. 1. It affirms the belief that the next generation
web can indeed change the way scientific knowledge is produced
and shared, as envisaged by Berners-Lee and Hendler [
        <xref ref-type="bibr" rid="ref5">5</xref>
        ].
4. CREATING THE EHEP ONTOLOGIES
The EHEP ontologies will be developed to be reused across
different applications as depicted in section 3. The ontologies
emphasise the formal semantics and capture the intrinsic structure
of the domain embodied as concepts, relations and axioms. The
creation of the EHEP ontologies is carried out in stages. First of
all, there is a need for the ontologists to attain sufficient level of
literacy in the EHEP domain to facilitate the impending
knowledge acquisition task. Initial discussion with the EHEP
physicists and related literature review enabled us to identify the
main domain concepts in a typical EHEP experimental analysis.
These concepts will become the ‘hooks’ in the skeletal EHEP
knowledge model.
      </p>
      <p>Next, each of these ‘hook’ concepts is expanded systematically, as
sub-models of the EHEP domain. These models are in essence,
taxonomies of defined concepts with their roles (properties)
restricted. The knowledge models are elaborated from interviews
with EHEP researchers, scientific documents, such as pre-prints
and journal articles, and existing standard HEP terminology, such
as the terms maintained by the Particle Data Group.</p>
      <p>
        We are developing these models using a Frame-based tool, called
Protégé-2000 [
        <xref ref-type="bibr" rid="ref2">2</xref>
        ]. Frames provide an object view of the world
and an intuitive modelling style. In spite of some modelling
limitations, Protégé-2000 still is a useful interaction tool for
eliciting knowledge from the EHEP physicists.
      </p>
      <p>A parallel activity undertaken during this time is the formulation
of a set of competency questions that outline the competence of
the EHEP ontologies. The regularly updated competency
questions effectually guide the acquisition of the correct domain
knowledge for the models.</p>
      <p>In short, the development of the knowledge models follows an
evolutionary development cycle, which also encompasses the
model validation, verification and refinement. This is part of our
ongoing work.</p>
      <p>
        Finally, the completed models will be formalised as EHEP
ontologies. We intend to implement the ontologies in
DAML+OIL [
        <xref ref-type="bibr" rid="ref4">4</xref>
        ], a Frame and Descriptive Logic integrated
ontology language, which is set to be the standard semantic
markup language for web resources.
5. OUR MAIN RESEARCH ISSUES
The EHEP ontologies will provide the framework for
communication, integration and sharing of resources among the
distributed research groups. It is the foundation for the web
services that will be enacted for the EHEP community. In the
process, this research project is set to investigate the two key
issues:
• How well can we express the domain knowledge pertaining to
the EHEP experimental analyses in a natural way (mirroring the
real world semantics)?
• There is a concomitant need to mark-up data and information
regarding experimental context in the scientific documents,
before it can be used as knowledge. How can we facilitate the
annotation of the EHEP collaboration documents?
new analysis
      </p>
      <p>Analyser</p>
      <p>Analysis Job
semantic links</p>
      <p>EHEP Ontologies
completed analyses
review existing analysis</p>
      <p>Analysis Report</p>
      <p>Publication
produces
hyperlinks
Analysis Archive</p>
      <p>Publication Archive
Fig. 1. Handling EHEP collaboration documents. Researchers
prepare and deliver the semantically marked up analysis reports
and publications, which can be archived and referred during
subsequent experimental analysis. The content of the archives can
also be searched more productively using precisely defined
queries. Jobs described using the ontological terms can be
processed directly by the agent analyser</p>
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