Safety is a word that has many connotations, of risk ofa possible accident that is acceptable conjuring up different meanings to different to one person· may not be acceptable to an people. What is safety? A scientist views safety other. This may be one reason why skydiving as a consideration in the design of an exper and mountain climbing are sports that are not iment. A manufacturing plant engineer looks as popular as are, say, boating or skiing. on safety as one of the necessary factors in But even activities that have high levels of developing a manufacturing process. A legis potential risk can be engaged in safely. How lator is likely to see safety as an important part can we minimize risks so that they decrease of an environmental law. A governmental ad to acceptable levels? We can do this by iden ministrator may consider various safety issues tifying sources of hazards and by assessing the when reviewing the environmental conse risks of accidents inherent to these hazards. quences of a proposed project. An attorney Most hazards that are faced in the laboratory may base a negligence suit on safety defects.

"...this substantial and engaging text offers a wealth of practical (in every sense of the word) advice...Every undergraduate laboratory, and, ideally, every undergraduate chemist, should have a copy of what is by some distance the best book I have seen on safety in the undergraduate laboratory." Chemistry World, March 2011 Laboratory Safety for Chemistry Students is uniquely designed to accompany students throughout their four-year undergraduate education and beyond, progressively teaching them the skills and knowledge they need to learn their science and stay safe while working in any lab. This new principles-based approach treats lab safety as a distinct, essential discipline of chemistry, enabling you to instill and sustain a culture of safety among students. As students progress through the text, they’ll learn about laboratory and chemical hazards, about routes of exposure, about ways to manage these hazards, and about handling common laboratory emergencies. Most importantly, they’ll learn that it is very possible to safely use hazardous chemicals in the laboratory by applying safety principles that prevent and minimize exposures. Continuously Reinforces and Builds Safety Knowledge and Safety Culture Each of the book’s eight chapters is organized into three tiers of sections, with a variety of topics suited to beginning, intermediate, and advanced course levels. This enables your students to gather relevant safety information as they advance in their lab work. In some cases, individual topics are presented more than once, progressively building knowledge with new information that’s appropriate at different levels. A Better, Easier Way to Teach and Learn Lab Safety We all know that safety is of the utmost importance; however, instructors continue to struggle with finding ways to incorporate safety into their curricula. Laboratory Safety for Chemistry Students is the ideal solution: Each section can be treated as a pre-lab assignment, enabling you to easily incorporate lab safety into all your lab courses without building in additional teaching time. Sections begin with a preview, a quote, and a brief description of a laboratory incident that illustrates the importance of the topic. References at the end of each section guide your students to the latest print and web resources. Students will also find “Chemical Connections” that illustrate how chemical principles apply to laboratory safety and “Special Topics” that amplify certain sections by exploring additional, relevant safety issues. Visit the companion site at http://userpages.wittenberg.edu/dfinster/LSCS/.

This Fourth Edition of the CRC Handbook of Laboratory Safety expands and updates the discussions found in the previous editions. The latest technologies and issues are incorporated to keep managers and laboratory personnel up-to-date on programs to meet the needs of new regulations.Every attempt has been made to ensure that the current edition is as up-to-date as possible by continually reviewing current regulatory standards. Every article has been revised to reflect the newest changes. Topics may be similar but the content may have changed significantly. The wealth of information easily accessible in this new edition continues to make the CRC Handbook of Laboratory Safety an essential reference tool.

The legislative requirement for cannabis to undergo laboratory testing has followed legalization of medical and recreational use in every U.S. state to date. Cannabis safety testing is a new investment opportunity within the emerging cannabis market that is separate from cultivation, processing, and distribution, allowing individuals and organizations who may have been reluctant to enter previously a new entry route to the cannabis space. However, many of the costs, timelines, operational requirements, and compliance issues are overlooked by people who have not been exposed to regulated laboratory testing. Cannabis Laboratory Fundamentals provides an in-depth review of the key issues that impact cannabis testing laboratories and provides recommendations and solutions to avoid common – but expensive – mistakes. The text goes beyond methodology to include sections on economics, regulation, and operational challenges, making it useful for both new and experienced cannabis laboratory operators, as well as all those who want to understand the opportunities and risks of this industry.

Expanded and updated, The CRC Handbook of Laboratory Safety, Fifth Edition provides information on planning and building a facility, developing an organization infrastructure, planning for emergencies and contingencies, choosing the correct equipment, developing operational plans, and meeting regulatory requirements. Still the essential reference tool, the New Edition helps you organize your safety efforts to adhere to the latest regulations and use the newest technology. Thoroughly revised, the CRC Handbook of Laboratory Safety, Fifth Edition includes new OSHA laboratory safety standards, the 1994 NRC radiation safety standards, guidelines for X-ray use in hospitals, enforcement of standards for dealing with blood-borne pathogens, OSHA actions covering hazardous waste operations and emergency response, and the latest CDC guidelines for research with microbial hazards. Every word on every page has been scrutinized, and literally hundreds of changes have been made to bring the material up to date. See what's new in the New Edition New figures and tables illustrating the new material Internet references in addition to journal articles Changes in the Clean Air Act regarding incineration of hospital, medical, and infectious waste Obsolete articles removed and replaced - over one hundred pages of new material New information on respiratory protection guidelines

Laboratory Safety: Theory and Practice focuses on theoretical aspects of the hazards the students, technicians, and scientists encounter in the laboratory. It presents methods of risk assessment that can be applied to technologies as they are translated from the scientist's mind to the laboratory bench. It is organized into three sections designated as General Laboratory Safety, Biological Laboratory Safety, and Medical and Psychological Factors. The first section, encompassing three chapters, discusses hazards found in almost all laboratories; pertinent safety theories and practices; ubiquitous compounds that are either toxic or carcinogenic and guidelines for their use; and radiation hazards. Chapters 4 to 7 focus on the safety in the biological laboratory. Discussions on relatively complex group of viruses, approach to recombinant DNA research, and awareness on the possible hazards associated with the field are included in this book. Chapters 6 and 7 present design and function of biohazard laboratories and the hazards relating to laboratory animals. The final section discusses medical surveillance of persons at risk and the psychological factors involved in accident control. It presents a comprehensive list of chemical agents, their sources, subsequent physical effects, and the accepted mode of medical surveillance. Various genetic screening tests and their potential use for the evaluation of presumptive and actual mutagens are also covered. This book is ideal for safety and design engineers, students, technicians, and scientists.

Recent serious and sometimes fatal accidents in chemical research laboratories at United States universities have driven government agencies, professional societies, industries, and universities themselves to examine the culture of safety in research laboratories. These incidents have triggered a broader discussion of how serious incidents can be prevented in the future and how best to train researchers and emergency personnel to respond appropriately when incidents do occur. As the priority placed on safety increases, many institutions have expressed a desire to go beyond simple compliance with regulations to work toward fostering a strong, positive safety culture: affirming a constant commitment to safety throughout their institutions, while integrating safety as an essential element in the daily work of laboratory researchers. Safe Science takes on this challenge. This report examines the culture of safety in research institutions and makes recommendations for university leadership, laboratory researchers, and environmental health and safety professionals to support safety as a core value of their institutions. The report discusses ways to fulfill that commitment through prioritizing funding for safety equipment and training, as well as making safety an ongoing operational priority. A strong, positive safety culture arises not because of a set of rules but because of a constant commitment to safety throughout an organization. Such a culture supports the free exchange of safety information, emphasizes learning and improvement, and assigns greater importance to solving problems than to placing blame. High importance is assigned to safety at all times, not just when it is convenient or does not threaten personal or institutional productivity goals. Safe Science will be a guide to make the changes needed at all levels to protect students, researchers, and staff.