During the past two decades, many books, governmental reports and regu lations on safety measures against chemieals, fire, microbiological and radioactive hazards in laboratories have been published from various coun tries. These topics have also been briefly discussed in books on laboratory planning and management. The application ofvarious scientific instruments based on different ionizing and non-ionizing radiations have brought new safety problems to the laboratory workers of today, irrespective of their scientific disciplines, be they medicine, natural or life sciences. However, no comprehensive laboratory handbook dealing with aIl these hazards, some of which are recently introduced, had so far been available in a single volume. Therefore, it was thought worthwhile to publish this Handbook on safety and health measures for laboratories, with contributions from several experts on these subjects. As this second edition of the Handbook, like the first edition, is a multiauthor volume, some duplication in conte nt among chapters is unavoidable in order to maintain the context of a chapter as weIl as make each chapter complete. An attempt has also been made to maintain the central theme, which is how to work in a laboratory with maximum possible environmental safety.

The Handbook of Laboratory Health and Safety 3rd Edition provides a valuable reference tool for chemical and industrial hygienists, laboratory personnel, and professionals who need information and guidance on health and safety issues and regulatory compliance. It presents a feasible, easy-to-use approach to provide a safe workplace and to help protect the surrounding community and environment while complying with regulatory requirements. This new edition provides updates to regulations in the field, changes in crisis management and emergency planning, biosafety, advances in ergonomics, behavioral safety science, laboratory design, and laboratory ventilation, hoods and vented enclosures.

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

Occupational health and safety refers to the whole series of prevention measures and protection, technical measures, organizational solutions, and procedures that must be adopted by the employer to avoid dangerous situations for their employees. While it is true that total security exists in the absence of dangers, and this is a difficult concept to translate into real life, in the absolute sense, it is also true that the application of safety rules makes the occurrence of adverse events and incidents more difficult, and it always results in a better quality of life. Each analytical laboratory should provide its own "Good Laboratory Practices" and procedures must be the result of the experience and must be known, correctly interpreted, shared, and respected by all the staff of laboratory.The idea of creating a manual on occupational health risks in a chemical and biological analysis laboratory derives from the need to provide technical support for the various figures involved in activities requiring the safe use of chemical and biological agents in lab analysis. The purpose of this work is to provide workers with more detailed information on the main possible causes of risk in an analysis laboratory, as well as on the most appropriate means of individual and collective protection to be used at work. The manual also gives an overview of main laboratory safety standards pertaining to clothing and equipment as well as procedures and lab design.This manual can be a valuable approach to knowledge of laboratory risks in order to eliminate or at least minimize them. Finally, the handbook can also be a support to the drafting of internal safety standards, both for general and specific procedures.

Provides information on proper chemcial equipment handling including, purchasing, storage, use, and disposal.

Nothing is more important to an organization than the health and safety of its workers. The managerial effectiveness of any health and safety program is judged on the basis of how well it prevents injuries and ill health. Chemical Safety in the Laboratory provides a proven approach to implementing and maintaining an effective chemical safety program for laboratories in hospital, industrial, and educational settings. Based on 20 years of experience managing and auditing chemical safety programs, the author discusses the OSHA Laboratory Standard and the Chemical Hygiene Plan, provides guidelines for the effective use of personal protective equipment, and details chemical emergency planning and response procedures. He also outlines a 19-step decontamination procedure for emergency responders. Employee chemical exposure monitoring and victim handling procedures are among the other major topics covered in this essential guide.

Laboratory Handbook of Medical Mycology summarizes the concepts dealing with the laboratory aspects of medical mycology. The publication first offers information on basic terminology and classification, laboratory safety, and clinical specimens. Discussions focus on tissue, abscess, blood, bone marrow, and urine specimens, biological hazards, disinfection and sterilization, grounding of electrical equipment, waste disposal, asexual and sexual reproduction, and vegetative growth. The text then takes a look at mold and yeast identification, including fermentation, temperature studies, asci and ascospores, zygomycetes, cycloheximide resistance, and sporulation and sterile isolates. The manuscript ponders on susceptibility testing and bioassay procedures, culture collection, and quality control. Topics include proficiency evaluations, media and equipment control, depositing unusual isolates in major culture collections, reconstituting lyophilized cultures, bioassay to determine drug levels in body fluids, and in vitro susceptibility testing. The publication is a dependable source of data for laboratory technologists, microbiologists, and mycologists engaged in safely isolating and accurately identifying fungi of medical importance.

Laboratory Design Handbook describes the process, motivation, constraints, challenges, opportunities, and specific design data related to the creation of a modern research laboratory. The information presented is based on a large pool of experience in the development of new and renovated laboratory buildings for universities, teaching hospitals, ph

The first comprehensive guide to modern laboratory planning in ten years to address both construction and operating aspects. Many of the 30 authors are affiliated with the European Association for Sustainable Laboratory Technologies (EGNATON), which has also endorsed this ready reference. This expert team covers the entire lifecycle of a laboratory facility, starting with the site layout and the planning of the building, followed by the planning of such areas as housing for laboratory animals, clean rooms and production facilities. The next section of the book deals with the installation of laboratory equipment, including storage and emergency facilities, while the final parts address safety and sustainability standards applicable to laboratories, as well as facility management and optimization during normal laboratory operation. The relevant norms and standards are cited throughout, and examples from recent construction sites are also presented. Hundreds of photographs and drawings, many in full color, provide visual examples of the design and building concepts. As a result, readers will learn how to construct and maintain efficient and long-serving laboratory spaces with a minimum of maintenance costs and a maximum of safety. An invaluable, practical guide for planners, builders and managers of chemical, biological and medical research laboratories of any size.

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.