With the complexity of the interactions between the methodology of science, the principles of justice, and the realities of the practice of law and criminalistics, ethical issues frequently arise. One of the hallmarks of a profession is a code of ethics to govern the actions of members of the profession with one another, with users of the professio

Ethical Standards in Forensic Science seeks to address the myriad practices in forensic science for a variety of evidence and analyses. The book looks at ethics, bias, what constitutes an expert in the field—both as a practitioner and to the court system—as well as the standards of practice as purported by the top forensic organizations. Coverage addresses evidence collection, chain of custody, real versus "junk" science, the damage questionable science can cause to a discipline and the judicial process, testing methods, report writing, and expert witness testimony in civil and criminal cases in a court of law. The authors’ background in engineering provides a unique perspective on a variety of evidence and testing methods. As such, in addition to coverage the range of evidence and topics cited in the 2009 National Academy of Sciences (NAS) Report, they address numerous challenges that have arisen specifically in forensic engineering cases—their specific area of expertise. Numerous case example are provided to illustrate the inherent danger of bias, inexact science, or expert witnesses taking dangerous and harmful liberties on the stand. Students, lawyers, and professionals in all forensic disciplines will find this a refreshing and accessible approach to elucidate the problem and offer suggestions for reform and change for the good of the entire profession.

The book "Technology in Forensic Science" provides an integrated approach by reviewing the usage of modern forensic tools as well as the methods for interpretation of the results. Starting with best practices on sample taking, the book then reviews analytical methods such as high-resolution microscopy and chromatography, biometric approaches, and advanced sensor technology as well as emerging technologies such as nanotechnology and taggant technology. It concludes with an outlook to emerging methods such as AI-based approaches to forensic investigations.

Scores of talented and dedicated people serve the forensic science community, performing vitally important work. However, they are often constrained by lack of adequate resources, sound policies, and national support. It is clear that change and advancements, both systematic and scientific, are needed in a number of forensic science disciplines to ensure the reliability of work, establish enforceable standards, and promote best practices with consistent application. Strengthening Forensic Science in the United States: A Path Forward provides a detailed plan for addressing these needs and suggests the creation of a new government entity, the National Institute of Forensic Science, to establish and enforce standards within the forensic science community. The benefits of improving and regulating the forensic science disciplines are clear: assisting law enforcement officials, enhancing homeland security, and reducing the risk of wrongful conviction and exoneration. Strengthening Forensic Science in the United States gives a full account of what is needed to advance the forensic science disciplines, including upgrading of systems and organizational structures, better training, widespread adoption of uniform and enforceable best practices, and mandatory certification and accreditation programs. While this book provides an essential call-to-action for congress and policy makers, it also serves as a vital tool for law enforcement agencies, criminal prosecutors and attorneys, and forensic science educators.

Engineering Standards for Forensic Application presents the technologies and law precedents for the application of engineering standards to forensic opinions, discussing Fundamentals, Disciplines, Engineering Standards, The Basics and the Future of Forensics. The book explores the engineering standard and how it is used by experts to give opinions that are introduced into evidence, and how they are assumed to be the best evidence known on the topic at hand. Final sections include coverage of NFL Brain Injuries and the Flint Water Crisis. Examples of the use of engineering standards are shown and discussed throughout the work. - Addresses a wide variety of forensic engineering areas, including relevant law - Provides a new approach of study that includes the work of both engineers and litigators - Contains contributions from over 40 experts, offering the reader examples of general forensic methods that are based on reliable engineering practice

Forensic science has been under scrutiny for some time, since the release of the NAS report in 2009. The report cited the need for standardized practices and the accreditation of crime labs. No longer can the forensic community take the position that cross-examination in a courtroom will expose weaknesses in methodology and execution. Quality Management in Forensic Science covers a wide spectrum of forensic disciplines, relevant ISO and non-ISO standards, accreditation and quality management systems necessary in any forensic science laboratory. Written by a globally well-respected forensic scientist with decades of experience in the forensic science laboratory and on the stand, as an expert witness who is also a Fellow of both the Royal Society of Chemistry and the Chartered Society of Forensic Sciences. This book will be a must-have resource for all forensic science stakeholders, particularly law enforcement agents and lawyers less familiar with the impact of quality management on the reliability of scientific evidence. A comprehensive, multidisciplinary reference of scientific practices for use in the forensic laboratory Coverage from DNA to toxicology, from trace evidence to crime scene and beyond Extensive review of ISO and non-ISO standards, accreditation, QMS and much more Written by a foremost forensic scientist with decades of experience in the laboratory and as an expert witness

Ethical Standards in Forensic Science seeks to address the myriad practices in forensic science for a variety of evidence and analyses. The book looks at ethics, bias, what constitutes an expert in the field—both as a practitioner and to the court system—as well as the standards of practice as purported by the top forensic organizations. Coverage addresses evidence collection, chain of custody, real versus "junk" science, the damage questionable science can cause to a discipline and the judicial process, testing methods, report writing, and expert witness testimony in civil and criminal cases in a court of law. The authors’ background in engineering provides a unique perspective on a variety of evidence and testing methods. As such, in addition to coverage the range of evidence and topics cited in the 2009 National Academy of Sciences (NAS) Report, they address numerous challenges that have arisen specifically in forensic engineering cases—their specific area of expertise. Numerous case example are provided to illustrate the inherent danger of bias, inexact science, or expert witnesses taking dangerous and harmful liberties on the stand. Students, lawyers, and professionals in all forensic disciplines will find this a refreshing and accessible approach to elucidate the problem and offer suggestions for reform and change for the good of the entire profession.

Offers a diverse, interdisciplinary, and eye-opening view of the future direction of forensic science This one-of-a-kind book is a collection of content from the Past and Current Presidents of the American Academy of Forensic Sciences—providing readers with all of their forensic science experience, knowledge, insight, and wisdom. It envisions where forensic science will be a decade from now and the impact of these emerging advances on the law (along with our place in it), emphasizing theoretical advances, innovative leads from the laboratory, and emerging technologies. Filled with information from some of the greatest forensic minds of their generation, The Future of Forensic Science covers all of the eleven sections that comprise the AAFS. It discusses new directions in forensic anthropology, and looks at the future of such disciplines as criminalistics, forensic engineering science, forensic psychiatry and behavioral science, forensic toxicology, and forensic document examination. It also touches on the current and future state of digital and multimedia sciences. Contains contributions from an eminent group of forensic science experts Presents a valuable repository of forensic science experience, knowledge, insight, and wisdom Offers an insightful interdisciplinary look at the future of forensic science and how it is changing forensic science for the better Timed to coincide with the NIST forensic science initiative and the OSAC process The Future of Forensic Science is a must-have book for practicing forensic science professionals, academics, and advanced undergraduate and graduate students in forensic science. This book is published as part of the AAFS series ‘Forensic Science in Focus’.

Originally published in 1982 by Pearson/Prentice-Hall, the Forensic Science Handbook, Third Edition has been fully updated and revised to include the latest developments in scientific testing, analysis, and interpretation of forensic evidence. World-renowned forensic scientist, author, and educator Dr. Richard Saferstein once again brings together a contributor list that is a veritable Who’s Who of the top forensic scientists in the field. This Third Edition, he is joined by co-editor Dr. Adam Hall, a forensic scientist and Assistant Professor within the Biomedical Forensic Sciences Program at Boston University School of Medicine. This two-volume series focuses on the legal, evidentiary, biological, and chemical aspects of forensic science practice. The topics covered in this new edition of Volume I include a broad range of subjects including: • Legal aspects of forensic science • Analytical instrumentation to include: microspectrophotometry, infrared Spectroscopy, gas chromatography, liquid chromatography, capillary electrophoresis, and mass spectrometry • Trace evidence characterization of hairs, dust, paints and inks • Identification of body fluids and human DNA This is an update of a classic reference series and will serve as a must-have desk reference for forensic science practitioners. It will likewise be a welcome resource for professors teaching advanced forensic science techniques and methodologies at universities world-wide, particularly at the graduate level.