The use of Environmental Science for decision making in Insurance

Author(s):  
Krescencja Glapiak

<p>EGU General Assembly 2020 – abstract</p><p><strong> </strong></p><p><strong>The use of Environmental Science for decision making in Insurance </strong></p><p><strong> </strong></p><p>Krescencja Podgorska (Glapiak)[1], Dr John K. Hillier[2], Dr Andreas Tsanakas[3], Dr Melanie King[4], Dr Boyka Simeonova[5], Prof Alistair Milne[6]</p><p>There is considerable global interest in evidence-based decision making. An example of this is the use of geoscience within (re)insurance for natural hazards (e.g. geophysical, meteorological). These cause economic losses averaging 120 billion USD per year.  Modelling the risk of natural perils plays a vital part in the global (re)insurance sector decision-making. Thus, a 'model' comprising of a decision-making agenda/practices or software tools to form a 'view of risk' is a vital part of the (re)insurance sector’s decision-making strategy. Hence, the (re)insurance sector is of particular interest to environmental scientists seeking to engage with business, and it is relevant to ‘Operational Research’ studies as an example of a sophisticated user of complex models. Much is not understood about how such models shape organisational decision-making behaviour and their performance. Furthermore, the drivers for knowledge flow are distinct for each organization’s business model. Therefore, it is crucial to understand how environmental science propagates into key decision-making in the (re)insurance sector. Specifically, the relative strength of the various routes by which science flows into decision-making processes are not yet explicitly recorded. This study determines how geoscience is used in decision-making in (re)insurance (i.e. to form a ‘view of risk’), with the practical aim of providing evidence that academic geoscientists can use when commencing or developing their collaboration with this sector. Data include the views from 28 insurance practitioners collected at a dedicated session in the Oasis LMF conference 2018, a desk-based study of the scientific background of ‘C’-level decision makers, and insights gained through co-writing a briefing note of the observations  with  industry co-authors and a representative of the UK funding body UKRI. We show that catastrophe models are a significant and dominant means of scientific input into decision-making in organizations holding (re)insurance risk but that larger organisations often augment this with in-house teams that include PhD-level scientists.  Also, the strongest route that exists for academic scientists to directly input is via the ‘Model Adjustment’ function and technical specialists there (e.g. Catastrophe Risk Manager’), but a disconnect is observed in that key decisions are seen as being taken in the ‘Underwriting & Pricing’ function or by senior management which require a further step to propagate the environmental science internally.</p><p> </p><div><br><div> <p><strong>[1]</strong> Doctoral Researcher, Geography and Environment, School of Social Sciences, Loughborough University</p> </div> <div> <p><strong>[2]</strong> Senior Lecturer in Physical Geography, Geography and Environment, School of Social Sciences, Loughborough University</p> </div> <div> <p><strong>[3]</strong> Reader in Actuarial Science, Cass Business School, Faculty of Actuarial Science and Insurance, CASS Business School, City, University of London</p> </div> <div> <p><strong>[4]</strong> Lecturer in Systems Engineering, School of Mechanical, Electrical and Manufacturing Engineering, Loughborough University</p> </div> <div> <p><strong>[5]</strong> Lecturer in Information Management, Deputy Director, Centre for Information Management Leader, KDE-RIG, Information Management at the School of Business and Economics, Loughborough University</p> </div> <div> <p><strong>[6]</strong> Professor of Financial Economics, School of Business and Economics, Loughborough University</p> </div> </div>

Author(s):  
Mariia Kozlova ◽  
Julian Scott Yeomans

Monte Carlo (MC) simulation is widely used in many different disciplines in order to analyze problems that involve uncertainty. Simulation decomposition has recently provided a simple, but powerful, advancement to the standard Monte Carlo approach. Its value for better informing decision making has been previously shown in the investment-analysis field. In this paper, we demonstrate that simulation decomposition can enhance problem analysis in a wide array of domains by applying it to three very different disciplines: geology, business, and environmental science. Further extensions to such disciplines as engineering, natural sciences, and social sciences are discussed. We propose that by incorporating simulation decomposition into pedagogical practices, we expect students to significantly advance their problem-understanding and problem-solving skills.


2015 ◽  
Vol 25 ◽  
pp. 17-26 ◽  
Author(s):  
L. C. Alewijnse ◽  
E.J.A.T. Mattijssen ◽  
R.D. Stoel

The purpose of this paper is to contribute to the increasing awareness about the potential bias on the interpretation and conclusions of forensic handwriting examiners (FHEs) by contextual information. We briefly provide the reader with an overview of relevant types of bias, the difficulties associated with studying bias, the sources of bias and their potential influence on the decision making process in casework, and solutions to minimize bias in casework. We propose that the limitations of published studies on bias need to be recognized and that their conclusions must be interpreted with care. Instead of discussing whether bias is an issue in casework, the forensic handwriting community should actually focus on how bias can be minimized in practice. As some authors have already shown (e.g., Found & Ganas, 2014), it is relatively easy to implement context information management procedures in practice. By introducing appropriate procedures to minimize bias, not only forensic handwriting examination will be improved, it will also increase the acceptability of the provided evidence during court hearings. Purchase Article - $10


2010 ◽  
Vol 113-116 ◽  
pp. 561-564
Author(s):  
Jian Ding ◽  
Ke Hong Wu ◽  
Zhi Bing Ding

The application of GIS technology to Military Environmental Information(MEI) management will play a vital role in MEI management, and can lead to better decision-making. This paper discusses both the management method and the application fields. Case studies, like information management, pollution coverage evaluating, military transportation planning and monitoring, and decision-making supporting, are presented in this paper. Detailed digital basemap database, Digital Elevation Model(DEM) data, Digital OrthoImage Model(DOM) data, image database of Remote Sensing, Social economic element database, and other informations related to military features, can be integrated into MEI GIS, and will meet the needs for later query and statistics. Spatial analysis is the bridge that links fundamental data models to GIS technology. While buffer analysis can be used for identifying the locations of hazardous chemical storage sites in relation to residents living area, and can facilitate the evaluation of the threatened area in the event of a leak or spill of hazardous materials. Network analysis can be used in military transportation planning and monitoring. GIS is particularly useful in providing composite visual representation of fairly complex underlying model calculations, analysts can draw implicit and important conclusion from the already known geographical data. The study shows that the management of MEI using GIS technology is reasonable and feasible, and GIS is a highly efficient tool in MEI management.


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