The world is a dangerous place and recent events have served to make it less safe. There are many arenas of conflict and even combat across the world. Such situations are the quintessential expression of stress; you stand in imminent danger and live with the knowledge that you may be attacked, injured or even killed at any moment. How do people perform under these conditions? How do they keep a heightened level of vigilance when nothing may happen in their immediate location for weeks or even months? What happens when the bullets actually start flying? How is it you distinguish friend from foe, and each from innocent bystanders when in immediate peril of your life? Can we design technology to help people make good decisions in these ultimately hazardous situations? To what degree does your membership in a team act to dissipate these particular effects? Can we generate sufficiently stressful field exercises to simulate these conditions and can we train and/or select those most able to withstand such adverse conditions? How will the next generation of servicemen deal with these inherent problems? These are the sorts of questions that Performance Under Stress addresses. This book is derived largely from a multiple-year, multiple university initiative (MURI) on stress and soldier performance on the modern, electronic battlefield. It involved leading researchers from many institutions who have brought their individual expertise to bear on these crucial, contemporary concerns. United by a common research framework, these groups attacked the issue from different methodological and conceptual approaches, ranging from traditional laboratory modeling and experimentation, to realistic simulations; from involved field exercises to personal experiences of actual combat conditions. The insights generated have been distilled and presented as a benchmark of current understanding and provide future directions for research in this arena. Although this work focuses on soldier stress and soldier performance, the principles that are derived extend well beyond this single application. Their findings can be applied to people facing the demands of the business world or research as much as to those who meet life or death situations, such as homeland security, first responders, and law enforcement personnel.

About the Author
Peter A. Hancock is Provost Distinguished Research Professor in the Department of Psychology, the Institute for Simulation and Training, and at the Department of Civil and Environmental Engineering at the University of Central Florida, USA. He currently holds a courtesy appointment as a Research Scientist at the Massachusetts Institute of Technology (MIT) and as an Adjunct Senior Research Scientist at the Transportation Institute of the University of Michigan. Dr. James L. Szalma is an assistant professor in the Psychology Department, and is the director of the Performance Research Laboratory (PeRL), at the University of Central Florida.

Reviews
'Contributions include a richly international input of knowledge and understanding which extend to other non-military work-stress patterns. These are ever more necessary wherever the new computerised world of technology pushes into business and academia, commerce, the process engineering and construction industries. The need for vigilance and quick, effective decisions in emergency is always there' The RoSPA Occupational Safety and Health Journal, May 2008 'The book is useful to anyone who desires a better understanding of stress and its ability to influence human performance. It is particularly relevent to the military community given the nonconventional challenges in today's battlefields and their increasing complexity. Performance under Stress addresses the subject in a pragmatic way and also offers a detailed and perceptive account of the current limited understanding and prospective future directions of this field of study.' Military Review, September-October 2009



Book Information
ISBN 9781138074910
Author James Szalma
Format Paperback
Page Count 406
Imprint CRC Press
Publisher Taylor & Francis Ltd
Weight(grams) 453g