A collection of practical examples, demonstrating how a variety of multinational companies measure the effectiveness of safety management systems. Each case reflects the specific needs and characteristics of the individual company.

This practical guide—and popular reference—helps you evaluate the efficiency of your company's current safety and health processes and make fact-based decisions that continually improve overall performance. Newly updated, this edition now also shows you how to incorporate safety management system components into your safety performance program and provides you with additional techniques for analyzing safety performance data. Written for safety professionals with limited exposure to statistics and safety-performance-measurement strategies, this comprehensive book shows you how to assess trends, inconsistencies, data, safety climates, and training in your workplace so you can identify areas that need corrective actions before an accident or injury occurs. To help you develop an effective safety metrics program, the author includes both an overview of safety metrics, data collection, and analysis and a set of detailed procedures for collecting data, analyzing it, and presenting it. You'll examine a comprehensive collection of tools and techniques that includes run charts and control charts, trending and forecasting, benchmarking, insurance rating systems, performance indices, the Baldrige Model, and six sigma. In addition, you'll find exercises and questions in each chapter that allow you to practice and review what you've learned. All answers are provided in an appendix. Techniques and tools discussed in this book include descriptive and inferential statistics, cause and effect analyses, measures of variability, and probability. Safety metric program development, implementation, and evaluation techniques are presented as well.

MONITORING FOR HEALTH HAZARDS AT WORK Monitoring for Health Hazards at Work remains the seminal textbook on measuring and ­controlling the risk of workplace exposure to physical, chemical, and biological hazards. Designed for students studying occupational hygiene and exposure science, this comprehensive and accessible volume provides step-by-step guidance on identifying hazards and quantifying their risks in various workplace environments. Complete with checklists and practical examples, the authors present clear explanations of all types of hazards that can arise in the workplace, including dust, particles, fibrous aerosols, gases, vapours, and bioaerosols. The fifth edition features revised material throughout, and remains an essential resource for students and professionals in occupational hygiene, reflecting global standards and recent developments in monitoring equipment, modelling methods, exposure assessment, and legislation on workplace safety. Several new or substantially revised chapters cover topics such as human biomonitoring, exposure modelling, hazardous substances, physical agents, evaluating ventilation, PPE, and other control measures Updated sections discuss the equipment currently available, the importance of risk communication, assessing dermal and inadvertent ingestion exposures, and more Examines common workplace comfort issues such as noise, vibration, heat and cold, and lighting Offers practical advice on conducting and presenting risk assessments and reports Discusses the future of the development and application of hazard measurement equipment and methods Monitoring for Health Hazards at Work, is required reading for students and professionals in occupational hygiene, environmental health and safety, occupational health and safety, and exposure science.

Over the last two decades across the globe we have seen a multitude of programs, projects and books to help improve the safety of patient care in healthcare. However, the full potential of these has not yet been reached. Most of the current approaches are top down, programmatic and target driven. These look at problems in isolation one harm at a time with simplistic solutions that fail to support a holistic, systematic approach. They are focused on collecting incident data and learning from failure using tools that are not fit for purpose in a complex nonlinear system. Very rarely do the solutions help build the conditions, cultures and behaviours that support a safer system and help the people involved work safely. Healthcare is stuck in a relentlessly negative approach to safety. Those working in patient safety and healthcare are struggling, and books on patient safety to date instruct the reader to continue doing the same things we have been doing for the last 20 years. This book uniquely combines the latest thinking in safety, including creating a balanced approach to learning from what works as a way to understand why it fails, together with the evidence on building a just culture, positive workplaces and working relationships that we now know are so important for safety. It helps people understand how to address issues despite their complexities and improve safety with practical ways to truly understand what day to day healthcare work is actually like, rather than what people imagine it is like. This book builds on the author’s first book Rethinking Patient Safety which exposed what we need to do differently to truly transform our approach to patient safety. It updates the reader further on the concepts explored in the first book but also vitally helps readers understand the ‘how’. Implementing Patient Safety goes beyond the rhetoric and provides the reader with ideas and examples for how the latest thinking can actually be achieved. It is based on the author’s personal experience of leading a national culture change campaign in the National Health Service for five years. The lessons arise from helping hundreds of organisations and people rethink and implement a whole new way of thinking about improving patient safety in healthcare.

Every day, doctors are faced with the challenge of keeping the people they treat safe and free from harm. Patient safety is a relatively new field of study, but the field is expanding and there is now better understanding of what is needed to measure and achieve safety for patients. The Handbook of Patient Safety will empower doctors, nurses and other professionals to be able to develop safe clinical processes that allow proactive management and minimisation of risk, so that people are not harmed when they receive clinical care. It gives the rationale for patient safety, the theories behind the science of patient safety and then the practical methods that frontline staff can use on a daily basis to decrease harm. Pocket sized and practical, this handbook is the ideal guide to support frontline staff and trainees, as well as all allied professionals in the name of patient safety. It reflects the World Health Organization's Patient Safety Curriculum and is written by international experts in their field who have specialist interests and direct expertise in dealing with patient safety issues. This book will demystify what is often seen as a complex topic, helping doctors understand the methods needed to provide safe care.

The condition assessment of aged structures is becoming a more and more important issue for civil infrastructure management systems. The continued use of existing systems is, due to environmental, economical and socio-political assets, of great significance and is growing larger every year. Thus the extent of necessary repair of damaged reinforced concrete structures is of major concern in most countries today. Monitoring techniques may have a decisive input to limit expenditures for maintenance and repair of existing structures. Modern test and measurement methods as well as computational mechanics open the door for a wide variety of monitoring applications. The need for quantitative and qualitative knowledge has led to the development and improvement of surveillance techniques, which have already found successful application in other disciplines such as medicine, physics and chemistry. The design of experimental test and measurement systems is inherently an interdisciplinary activity. The specification of the instrumentation to measure the structural response will involve the skills of civil, electrical and computer engineers. The main aim of fib Commission 5, Structural servicer life aspects, is to provide a rational procedure to obtain an optimal technical-economic performance of concrete structures in service and to ensure a feedback of experience gained to design, execution, maintenance and rehabilitation. Against this background fib Task Group 5.1 Monitoring and Safety Evaluation of Existing Concrete Structures had been established to evaluate the existing practice worldwide. The objective of this state-of-art report is to summarize the most important inspection and measuring methods, to describe the working process and to evaluate the applicability to structural monitoring. Particular emphasis is placed upon non-destructive systems, lifetime monitoring, data evaluation and safety aspects.

Healthcare is important to everyone, yet large variations in its quality have been well documented both between and within many countries. With demand and expenditure rising, it’s more crucial than ever to know how well the healthcare system and all its components – from staff member to regional network – are performing. This requires data, which inevitably differ in form and quality. It also requires statistical methods, the output of which needs to be presented so that it can be understood by whoever needs it to make decisions. Statistical Methods for Healthcare Performance Monitoring covers measuring quality, types of data, risk adjustment, defining good and bad performance, statistical monitoring, presenting the results to different audiences and evaluating the monitoring system itself. Using examples from around the world, it brings all the issues and perspectives together in a largely non-technical way for clinicians, managers and methodologists. Statistical Methods for Healthcare Performance Monitoring is aimed at statisticians and researchers who need to know how to measure and compare performance, health service regulators, health service managers with responsibilities for monitoring performance, and quality improvement scientists, including those involved in clinical audits.