Shanghai Maritime University (China) & Naval Academy Research Institute (France)
Short biography: Professor Christophe Claramunt is currently the chair of the Naval Academy Research Institute in France. He was previously a senior lecturer in computing at the Nottingham Trent University and senior researcher at the Swiss Federal Institute of Technology in Lausanne. His research is oriented towards theoretical, computational and pluri-disciplinary aspects of geographical information systems. Over the past few years he has been regularly involved in EU funded projects such as the H2020 project datAcron "Big Data Analytics for Time Critical Mobility Forecasting". Amongst other affiliations, he is a research fellow at the Research Center for Social Informatics of the Kwansei University in Japan, Centre for Planning Studies at the Laval University, the Laboratory for Geographical Information Science at the Chinese University of Hong Kong and the Logistics Engineering Department at the Shanghai Maritime University.
More at: http://christophe.claramunt.free.fr/ or https://sites.google.com/site/christopheclaramunt/
Title: Big Data, Spatial Data and Social Networks over the Web
Abstract: Nowadays the Web and other information resources and exchange mediums such as Twitter, Snapchat and many others provide many novel opportunities for the analysis of human interactions and behaviors. This talk will introduce several examples of recent work that consider these information means as big data systems that offer several avenues for social and economic studies. I will first introduce a graph-based and computational modelling approach that derives the main structural, temporal and spatial properties that emerge from the study of an implicit research community exhibited by a series of conferences over the Web. Next I will present a study that explores large crowd behavior at the regional scale using a large geo-tagged Twitter dataset. The main idea behind this computational study is to explore human spatio-temporal patterns and moods at the regional scale in Japan. Patterns are analyzed in space and time, emotions are categorized using a sentiment-based dictionary approach. Finally I will discuss some of the many opportunities left for further research.
University of Porstmouth, UK
Short biography: Adrian Hopgood is Full Professor of Intelligent Systems and Director of Future & Emerging Technologies at the University of Portsmouth in the UK. He is also a visiting professor at the Open University and at Sheffield Hallam University. He is a Chartered Engineer, Fellow of the BCS (the Chartered Institute for IT), and a committee member for the BCS Specialist Group on Artificial Intelligence.
Professor Hopgood has extensive experience in both academia and industry. He has worked at the level of Dean and Pro Vice-Chancellor in four universities in the UK and overseas, and has enjoyed scientific roles with Systems Designers (now part of Hewlett-Packard) and the Telstra Research Laboratories in Australia.
His main research interests are in artificial intelligence and its practical applications. He has supervised 19 PhD projects to completion and published more than 100 research articles. His text book "Intelligent Systems for Engineers and Scientists” has been published in three editions and is ranked as a bestseller.
More at: https://researchportal.port.ac.uk/portal/en/persons/adrian-hopgood(81562870-679c-4459-8963-86ef6670a4b0).html
Title: Practical Artificial Intelligence with Big Data
Abstract: Big data are important for delivering practical artificial intelligence, but they are not the complete picture. A wide range of techniques has emerged from the field of artificial intelligence including rules, frames, model-based reasoning, case-based reasoning, Bayesian updating, fuzzy logic, multiagent systems, swarm intelligence, genetic algorithms, deep learning, and neural networks. They are all ingenious and useful in narrow contexts. It will be argued in this presentation that a truly intelligent system needs to draw on a variety of these approaches within a hybrid system. Five distinct ways to enhance or complement one technique with another will be identified. Several practical examples will be presented, ranging from medical diagnosis to the control of specialised manufacturing processes.