Philip Kershaw
Rutherford Appleton Laboratory
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Publication
Featured researches published by Philip Kershaw.
Future Generation Computer Systems | 2014
Luca Cinquini; Daniel J. Crichton; Chris A. Mattmann; John Harney; Galen M. Shipman; Feiyi Wang; Rachana Ananthakrishnan; Neill Miller; Sebastian Denvil; Mark Morgan; Zed Pobre; Gavin M. Bell; Charles Doutriaux; Robert S. Drach; Dean N. Williams; Philip Kershaw; Stephen Pascoe; Estanislao Gonzalez; Sandro Fiore; Roland Schweitzer
Abstract The Earth System Grid Federation (ESGF) is a multi-agency, international collaboration that aims at developing the software infrastructure needed to facilitate and empower the study of climate change on a global scale. The ESGF’s architecture employs a system of geographically distributed peer nodes, which are independently administered yet united by the adoption of common federation protocols and application programming interfaces (APIs). The cornerstones of its interoperability are the peer-to-peer messaging that is continuously exchanged among all nodes in the federation; a shared architecture and API for search and discovery; and a security infrastructure based on industry standards (OpenID, SSL, GSI and SAML). The ESGF software stack integrates custom components (for data publishing, searching, user interface, security and messaging), developed collaboratively by the team, with popular application engines (Tomcat, Solr) available from the open source community. The full ESGF infrastructure has now been adopted by multiple Earth science projects and allows access to petabytes of geophysical data, including the entire Fifth Coupled Model Intercomparison Project (CMIP5) output used by the Intergovernmental Panel on Climate Change (IPCC) Fifth Assessment Report (AR5) and a suite of satellite observations (obs4MIPs) and reanalysis data sets (ANA4MIPs). This paper presents ESGF as a successful example of integration of disparate open source technologies into a cohesive, wide functional system, and describes our experience in building and operating a distributed and federated infrastructure to serve the needs of the global climate science community.
international conference on big data | 2013
Bryan N. Lawrence; Victoria Bennett; J. Churchill; M. Juckes; Philip Kershaw; Stephen Pascoe; Sam Pepler; Matt Pritchard; A. Stephens
JASMIN is a super-data-cluster designed to provide a high-performance high-volume data analysis environment for the UK environmental science community. Thus far JASMIN has been used primarily by the atmospheric science and earth observation communities, both to support their direct scientific workflow, and the curation of data products in the STFC Centre for Environmental Data Archival (CEDA). Initial JASMIN configuration and first experiences are reported here. Useful improvements in scientific workflow are presented. It is clear from the explosive growth in stored data and use that there was a pent up demand for a suitable big-data analysis environment. This demand is not yet satisfied, in part because JASMIN does not yet have enough compute, the storage is fully allocated, and not all software needs are met. Plans to address these constraints are introduced.
The Journal of Supercomputing | 2014
Xiaoyu Yang; David Wallom; Simon Waddington; Jianwu Wang; Arif Shaon; Brian Matthews; Michael D. Wilson; Yike Guo; Li Guo; Jon Blower; Athanasios V. Vasilakos; Kecheng Liu; Philip Kershaw
Service-oriented architecture (SOA), workflow, the Semantic Web, and Grid computing are key enabling information technologies in the development of increasingly sophisticated e-Science infrastructures and application platforms. While the emergence of Cloud computing as a new computing paradigm has provided new directions and opportunities for e-Science infrastructure development, it also presents some challenges. Scientific research is increasingly finding that it is difficult to handle “big data” using traditional data processing techniques. Such challenges demonstrate the need for a comprehensive analysis on using the above-mentioned informatics techniques to develop appropriate e-Science infrastructure and platforms in the context of Cloud computing. This survey paper describes recent research advances in applying informatics techniques to facilitate scientific research particularly from the Cloud computing perspective. Our particular contributions include identifying associated research challenges and opportunities, presenting lessons learned, and describing our future vision for applying Cloud computing to e-Science. We believe our research findings can help indicate the future trend of e-Science, and can inform funding and research directions in how to more appropriately employ computing technologies in scientific research. We point out the open research issues hoping to spark new development and innovation in the e-Science field.
international conference theory and practice digital libraries | 2013
Jon Blower; Raquel Alegre; Victoria Bennett; Debbie Clifford; Philip Kershaw; Bryan N. Lawrence; Jp Lewis; Kevin Marsh; Maurizio Nagni; Alan O’Neill; Rhona Phipps
We describe the CHARMe project, which aims to link climate datasets with publications, user feedback and other items of “commentary metadata”. The system will help users learn from previous community experience and select datasets that best suit their needs, as well as providing direct traceability between conclusions and the data that supported them. The project applies the principles of Linked Data and adopts the Open Annotation standard to record and publish commentary information. CHARMe contributes to the emerging landscape of “climate services”, which will provide climate data and information to influence policy and decision-making. Although the project focuses on climate science, the technologies and concepts are very general and could be applied to other fields.
Bulletin of the American Meteorological Society | 2016
Debbie Clifford; Raquel Alegre; Victoria Bennett; Jonathan D. Blower; Cecelia DeLuca; Philip Kershaw; Christopher Lynnes; Chris A. Mattmann; Rhona Phipps; Iryna Rozum
AbstractFor users of climate services, the ability to quickly determine the datasets that best fit one’s needs would be invaluable. The volume, variety, and complexity of climate data makes this judgment difficult. The ambition of CHARMe (Characterization of metadata to enable high-quality climate services) is to give a wider interdisciplinary community access to a range of supporting information, such as journal articles, technical reports, or feedback on previous applications of the data. The capture and discovery of this “commentary” information, often created by data users rather than data providers, and currently not linked to the data themselves, has not been significantly addressed previously. CHARMe applies the principles of Linked Data and open web standards to associate, record, search, and publish user-derived annotations in a way that can be read both by users and automated systems. Tools have been developed within the CHARMe project that enable annotation capability for data delivery systems ...
Geoscientific Model Development | 2016
Duncan Watson-Parris; N. A. J. Schutgens; Nicholas Cook; Zak Kipling; Philip Kershaw; Edward Gryspeerdt; Bryan N. Lawrence; P. Stier
Archive | 2011
Philip Kershaw; Rachana Ananthakrishnan; Luca Cinquini; Dennis Heimbigner; Bryan N. Lawrence
Archive | 2007
Bryan N. Lawrence; Philip Kershaw; Jon Blower
Archive | 2014
Debbie Clifford; Jonathan D. Blower; Raquel Alegre; Rhona Phipps; Victoria Bennett; Philip Kershaw
arXiv: Distributed, Parallel, and Cluster Computing | 2012
Bryan N. Lawrence; Victoria Bennett; J. Churchill; Martin Juckes; Philip Kershaw; P. Oliver; Matt Pritchard; A. Stephens