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2005 Graduate Catalog and 2004 Annual R & D Report - Sirindhorn ...

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<strong>2005</strong> <strong>Graduate</strong> <strong>Catalog</strong> <strong>and</strong> <strong>2004</strong> <strong>Annual</strong> R & D <strong>Report</strong><br />

<strong>Sirindhorn</strong> International Institute of Technology (SIIT)<br />

Dr. Chawalit Jeenanunta<br />

Lecturer (Joined SIIT in October <strong>2004</strong>)<br />

B.S. in Computer Science, University of Maryl<strong>and</strong>, USA<br />

B.S. in Mathematics, University of Maryl<strong>and</strong>, USA<br />

M.S. in Management Science, University of Maryl<strong>and</strong>, USA<br />

Ph.D. in Industrial <strong>and</strong> Systems Engineering, Virginia Polytechnic Institute <strong>and</strong> State University, USA<br />

Research Areas: Linear programming, Integer programming, Network optimization, Simulation.<br />

Research Interest:<br />

Large-Scale Simulation <strong>and</strong> Optimization<br />

Many problems in the real world are large <strong>and</strong><br />

complex. Researchers in this field are trying to<br />

improve the algorithm <strong>and</strong> utilize available<br />

computational technology such as parallelism or grid<br />

computing to solve such problems where their<br />

resulting models are also very large. This technology<br />

also enables researchers to have a detail model<br />

which is close to the real world problem. Some<br />

examples of these problems are transportation<br />

problem in the urban area (where there consist of<br />

millions of people driving on thous<strong>and</strong>s of streets),<br />

financial simulation, <strong>and</strong> bioinformatics.<br />

Dr. Cholwich Nattee<br />

Lecturer (Joined SIIT in May <strong>2005</strong>)<br />

B.Eng. in Computer Engineering, Chulalongkorn University, Thail<strong>and</strong><br />

M.Eng. in Computer Science, Tokyo Institute of Technology, Japan<br />

D.Eng. in Computer Science, Tokyo Institute of Technology, Japan<br />

Research Areas: Artificial intelligence, Machine learning, Knowledge discovery <strong>and</strong> Data mining, Artifcial<br />

Intelligence applications in distance learning <strong>and</strong> pattern recognition.<br />

Research Interest:<br />

Inductive Logic Programming for Structure-<br />

Activity Relationship Studies<br />

Nowadays, a vast amount of chemical compound<br />

structure information can be produced due to<br />

advances in High Throughput Screening technology<br />

that automates compound screening using the<br />

combination of robotics, image processing <strong>and</strong><br />

pattern recognition. From these data, knowledge<br />

describing compound activities <strong>and</strong> characteristics<br />

from their structures is essential, since it can be used<br />

for predicting characteristics of unknown compounds<br />

for developing new drugs. Machine learning <strong>and</strong> data<br />

mining techniques have been applied in order to<br />

automatically obtain models describing the relations<br />

between structure <strong>and</strong> activity. However, traditional<br />

data mining algorithms have limitations on knowledge<br />

representations. Thus, complicated structures of<br />

chemical compounds cannot be h<strong>and</strong>led efficiently.<br />

Extended from traditional machine learning<br />

techniques, Inductive Logic Programming (ILP)<br />

applies first-order logic for representing data. This<br />

allows complicated structures or relations among<br />

training examples to be denoted without losing any<br />

information. Moreover, learning results in the form of<br />

first-order rules, are comprehensible. The knowledge<br />

obtained can be easily explained to domain experts.<br />

Dr. Ekawit Nantajeewarawat<br />

Associate Professor<br />

B.Eng. in Computer Engineering, Chulalongkorn University, Thail<strong>and</strong><br />

M.Eng. & D.Eng. in Computer Science, Asian Institute of Technology (AIT), Thail<strong>and</strong><br />

Areas of Specialization: Knowledge representations, Computational logics, Computation theory, Programming<br />

paradigms, Object-oriented system analysis <strong>and</strong> design.<br />

Research Interests:<br />

Semantic Web<br />

Expectedly, Semantic Web technology will bring<br />

about large-scale heterogeneous Web knowledge<br />

bases with a qualitatively new level of service. The<br />

concept of ontology (domain theory) will play a key<br />

role as a formal, explicit specification of shared<br />

conceptualizations that describe the semantics of<br />

data on the Web. Grounded upon Description logics<br />

(DLs), the theory of XML declarative descriptions<br />

(XDD) <strong>and</strong> Resource Description Framework (RDF),<br />

formal ontology languages as well as meta-level<br />

representation of Web resources are investigated.<br />

The possibility of developing automated reasoning<br />

systems for Semantic Web is explored from both<br />

theoretical <strong>and</strong> practical viewpoints, e.g., a hybrid<br />

reasoning system comprising a DL-based reasoning<br />

component <strong>and</strong> a rule-based backward chaining<br />

component. Realization of the Semantic Web vision<br />

dem<strong>and</strong>s further research work on several other<br />

knowledge-representation-related issues.<br />

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