Search

This book provides a comprehensive exploration of health and safety in the workplace, focusing on critical safety design, functional safety, and applying risk analysis. Through this book, readers will learn to navigate the complex landscape of organizational safety management, ensuring safe systems of work in hazardous environments.The chapters cover topics such as preliminary hazard identification and analysis, understanding and applying risk analysis, and constructing robust safety cases and arguments. The author presents an expert analysis of these themes through the lens of real-world examples and empirical research. Readers will also discover diverse perspectives from renowned scholars and practitioners in the field, making this book a must-read for anyone involved in organizational safety management.This book is essential for health and safety professionals, industrial and process engineers, and students at all levels studying engineering or safety courses. By the end of this volume, readers will be equipped with the knowledge to explain core principles of organizational safety management and apply them effectively in their work environments.

This book is a comprehensive guide to the classification, design, and certification of offshore access gangway systems. It provides essential insights into the safety and operational standards required for the construction and maintenance of these critical structures in the offshore oil and gas industry.The chapters cover topics such as structural requirements, machinery and systems, testing and surveys, and risk assessment. The author delves into the intricacies of Class notations, approvals, and international regulations. This guide is indispensable for understanding the stringent requirements for offshore gangway systems, ensuring compliance with global standards.Ideal for offshore engineers, marine architects, safety managers, and students in industrial design and engineering, this reference book offers a detailed exploration of the latest research and practical applications in the field. Whether you are overseeing design or construction or ensuring operational safety, this book is an invaluable resource.

This book introduces details of inspection criteria and inspection techniques, which are widely recognized by the marine construction industry as a reliable means of inspection of structure members and their welds during the construction of surface vessels and other related marine and offshore structures. This text incorporates the criteria for phased array ultrasonic testing (PAUT). Since 2016, PAUT has become a common non-destructive testing method in use in shipyards for marine and offshore structures across the world, as it provides quicker examination than conventional UT technique for complex geometries. Moreover, this book includes guidance for time-of-flight diffraction (TOFD) ultrasonic inspection. The TOFD ultrasonic examination technique provides improved detection and sizing capabilities of discontinuities compared to standard ultrasonic pulse-echo techniques. Both PAUT and TOFD produce a permanent record of the inspection in electronic format.

This book provides a comprehensive guide to the identification and assessment of structural loads arising from accidental events in offshore structures. Through this book, readers will learn about risk-based assessment techniques that are essential for determining accidental loads, moving beyond traditional prescriptive criteria. The chapters cover topics such as ship collision hazards, dropped object hazards, fire hazards, and blast hazards. The author, Alexander Arnfinn Olsen, presents an expert analysis of these critical issues through the lens of risk-based evaluations. Readers will discover methodologies to identify and assess the effects of accidental structural loads, making this book a must-read for those involved in offshore safety and certification. This book is an invaluable resource for offshore engineers, marine architects, and safety management professionals. It serves as both a reference for academics and students in industrial design and engineering and a textbook for students of marine architecture. With its focus on classification aspects including design, construction, and maintainability, this guide is essential for anyone responsible for overseeing the design and construction of offshore platform assets.

Technical rules like the IGF code are developed by large groups of experts over long periods of time. Explaining the background for the requirements of such rules is not part of the development process. As a result, the reasoning behind the rules is often lost over time, or at least hidden from the end user of the rules. The purpose of this publication is to explain the safety principles behind the rules for unconventional marine fuels. It is the author's hope that an understanding of the safety principles will contribute to the technology-based interpretation of the rules and their further development.

This book provides guidance and insight into the development process for safety indicators to comply with general classification rule requirements. The utilisation of this guidance will provide tangible benefits as the marine and offshore industry is able to realise the positive results of tangible safety indicators that are developed correctly and managed appropriately throughout the lifecycle of the vessel or platform. In the marine and offshore industry, design and equipment configurations vary from one system to the next, and systems are in many cases increasingly complex. There are gaps in codes and standards which may lag technological innovations and there are issues related to interfaces between systems. Safety indictors such as risk analyses, FMEA, job safety analyses, management of change procedures, HSQE, technical manuals and reliability-based maintenance provide a formalised approach to identify hazardous situations, address the gaps and interconnection variances, and improve safety, environmental performance and operational downtime. The majority of Classification Societies (‘Class') require their clients to develop and submit safety indicators as part of the classification requirements for certain systems and to obtain certain special notations.