Avani Dixit

Mr. Avani Dixit


Research Focus & Metrics

Academic Career Length

57Years (1970-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 June 2006
Verified
Conference Paper
Closed access
SCSukasom Chaiyakul
Sukasom Chaiyakul
KLKati Limapichat
Kati Limapichat
ADAvani Dixit
Avani Dixit
ENEkawit Nantajeewarawat
Ekawit Nantajeewarawat
With the expanse of Internet, Web programmers have wide choice of Web services available to them. A need arises for automatic discovery of required Web services and construction of an appropriate sequence of invocation thereof. In this paper, we present a framework for automation of this task based on currently emerging technologies such as ontological knowledge bases, OWL, OWL-S, WSDL, description logic (DL), etc. Background knowledge ontologies are created based on which semantic meanings of Web services can be given through OWL-S. An agent employs OWL-S API to extract Web service metadata, and applies a DL inference engine, called Racer, for reasoning with the metadata with respect to given background knowledge. Reasoning tasks performed by Racer include profile matchmaking, input/output subsumption testing, and preconditions/effects analysis, which are basic mechanisms for Web services discovery and invocation planning. A prototype system has been implemented

7 May 2025 in Journal of Disaster Science and Management
Verified
Journal Article
Open access
PDF file
NBNamita Poudel Bhurtel
Namita Poudel Bhurtel
ADAvani Dixit
Avani Dixit
MPMa Theresa Pancho Pamaong
Ma Theresa Pancho Pamaong
SLSze Yui LU
Sze Yui LU
STSachiko Takane
Sachiko Takane
Rajib ShawRajib Shaw
Rajib Shaw
Citizen science is increasingly significant in scientific research and disaster management, especially as disaster risks intensify globally. While numerous studies confirm the value of citizen science programs in mitigating disaster risks, further research is needed to understand how these programs contribute to disaster risk reduction and to identify indicators of their success. This study investigates key success factors and challenges of citizen science programs through a case study of Safecast, a radiation monitoring initiative in Japan. Six critical factors were identified: active participation, knowledge production, data accuracy, expansion of spatial and temporal data, and citizen-related outcomes. Safecast’s broad engagement of participants, open-source data collection, and significant contributions to scientific research and policy decisions have been key to its effectiveness. In addition, the rigorous data accuracy measures and data expansion over time and space have further supported disaster risk reduction efforts. However, challenges remain in maintaining participant engagement, addressing the digital divide, and ensuring data consistency. Safecast exemplifies how citizen science can bridge grassroots data collection with formal disaster management, highlighting its potential to strengthen disaster resilience and empower communities.

 in ECTI Transactions on Computer and Information Technology (ECTI-CIT)
Verified
Journal Article
Open access
PDF file
KLKati Limapichat
Kati Limapichat
SCSukasom Chaiyakul
Sukasom Chaiyakul
ADAvani Dixit
Avani Dixit
ENEkawit Nantajeewarawat
Ekawit Nantajeewarawat
With the expanse of internet, web programmers have wide choice of web services available to them. A need arises for automatic discovery of required web services and construction of an appropriate sequence of invocation thereof. In this paper, we present a framework for automation of this task based on currently emerging technologies such as ontological knowledge bases, OWL, OWL-S, WSDL, Description Logic (DL), etc. Background-knowledge ontologies are created based on which semantic meanings of web services can be given through OWL-S. An agent employs OWL-S API to extract web service metadata, and applies a DL inference engine, called Racer, for reasoning with the metadata with respect to given background knowledge. Reasoning tasks performed by Racer include profile matchmaking, input/output subsumption testing, and preconditions/effects analysis, which are basic mechanisms for web services discovery and invocation planning. A prototype system has been implemented.