Clinical And Forensic Applications Of Capillary Electrophoresis

Because capillary electrophoresis (CE) is driving the automation of manual and semi-manual techniques, conserves precious samples, and minimizes the use of hazardous organic chemicals, it constitutes a powerful new methodology for the clinical laboratory. In Clinical and Forensic Applications of Capillary Electrophoresis, John R. Petersen and Amin A. Mohammad, along with a panel of leading basic and clinical investigators, review those CE methods that are now replacing many routine serum and blood tests in clinical and forensic laboratories. Major areas reviewed include the coating of columns; the analysis of serum, urine, and CSF proteins and paraproteins; abnormal hemoglobins and hemoglobin Alc; peptides, amino and organic acids; therapeutic drugs; drugs of abuse; viral load; and short tandem repeats (STR). The methods discussed include capillary zone, micellar, electrokinetic, capillary gel, and nonaqueous electrophoresis. The authors show how a variety of detection methods (UV-visible, fluorescence, and MS) can be used in conjunction with CE to detect a broad array of analytes, ranging from serum proteins to PCR products to drugs of forensic importance. Innovative and highly practical, Clinical and Forensic Applications of Capillary Electrophoresis demonstrates the power and versatility of CE-not only to develop new assays, but also to markedly simplify today's clinical and forensic laboratory methodology.

Because capillary electrophoresis (CE) is driving the automation of manual and semi-manual techniques, conserves precious samples, and minimizes the use of hazardous organic chemicals, it constitutes a powerful new methodology for the clinical laboratory. In Clinical and Forensic Applications of Capillary Electrophoresis, John R. Petersen and Amin A. Mohammad, along with a panel of leading basic and clinical investigators, review those CE methods that are now replacing many routine serum and blood tests in clinical and forensic laboratories. Major areas reviewed include the coating of columns; the analysis of serum, urine, and CSF proteins and paraproteins; abnormal hemoglobins and hemoglobin Alc; peptides, amino and organic acids; therapeutic drugs; drugs of abuse; viral load; and short tandem repeats (STR). The methods discussed include capillary zone, micellar, electrokinetic, capillary gel, and nonaqueous electrophoresis. The authors show how a variety of detection methods (UV-visible, fluorescence, and MS) can be used in conjunction with CE to detect a broad array of analytes, ranging from serum proteins to PCR products to drugs of forensic importance. Innovative and highly practical, Clinical and Forensic Applications of Capillary Electrophoresis demonstrates the power and versatility of CE-not only to develop new assays, but also to markedly simplify today's clinical and forensic laboratory methodology.

In Clinical Applications of Capillary Electrophoresis, Stephen Palfrey brings together for first time a collection of detailed capillary electrophoresis protocols designed exclusively for clinical applications. Written by the leading scientists who have often perfected these methods in their own laboratories, the protocols furnish new and more powerful assays for many routine serum and blood tests now regularly performed in clinical laboratories, including urine protein analysis, hemoglobin separation, and the detection of CSF proteins, lipoproteins, myoglobin, cryoglobulins, HbA1c, and cathepsin. The protocols offered for DNA studies include double-stranded DNA analysis, the prenatal diagnosis of Down's syndrome, Rh D/d genotyping, the identification of mutated p53 oncogene, and the detection of microsatellite instability in cancers. Many of the methods can be automated to replace the more costly and labor-intensive tests that are currently used in most clinical laboratories. Clinical Applications of Capillary Electrophoresis demonstrates clearly the simplicity, versatility, and power of CE over conventional methods. It offers to beginning clinical investigators, as well as established laboratories new to the technique, a representative range of highly practical CE methods-assays that are not only certain to become ever more productive, but are already eminently useful today.

Methods of Therapeutic Drug Monitoring Including Pharmacogenetics, Second Edition, Volume Seven in the Handbook of Analytical Separations series, covers all aspects of drug monitoring, including laboratory work, pharmacokinetic analysis and clinical aspects, thus enabling readers from different fields to understand the whole process of therapeutic drug monitoring and how to avoid common pitfalls. The book contains analytical techniques for the quantification of drugs, along with pharmacogenetic and pharmacogenomic methods. Also included are updates on sample preparation, including dried blood spot technology and microextraction methods. In addition, the book includes new drugs, such as tyrosine kinase inhibitors and the monitoring of immunosuppressant drugs. Presents a unique, interdisciplinary approach that appeals to a wide range of users Written by authors from international labs, providing a global perspective that can be applied in various regulatory environments Features additional therapeutic drugs to reflect the rising number of immunocompromised patients Includes a new mass spectroscopic methods chapter to capture the frequent use in TDM and the improved availability of LC-MS across laboratories

This book offers an introduction to the newest, fastest-growing field in laboratory science. Explaining and clarifying the molecular techniques used in diagnostic testing, this text provides both entry-level and advanced information. It covers the principles of molecular biology along with genomes and nucleic acid alterations, techniques and instrumentation, and applications of molecular diagnostics. Written by leading experts, including Patrick Bossuyt, Angela Caliendo, Rossa W.K. Chiu, Kojo S.J. Elenitoba-Johnson, Andrea Ferreira-Gonzalez, Amy Groszbach, Sultan Habeebu, Doris Haverstick, Malek Kamoun, Anthony Killeen, Noriko Kusukawa, Y.M. Dennis Lo, Elaine Lyon, Gwendolyn McMillin, Christopher Price, James Versalovic, Cindy Vnencak-Jones, Victor Weedn, Peter Wilding, Thomas Williams, and Carl Wittwer, this book includes illustrations, tables, and a colorful design to make information easy to find and easy to use. A full-color, 4-page insert shows realistic images of the output for many molecular tests. Learning Objectives open each chapter with an overview of what you should achieve. Key Words are listed and defined at the beginning of each chapter, and are bolded in the text. Review Questions at the end of every chapter let you measure your comprehension. Advanced Concepts are included, but set apart from the rest of the text, for students who want a higher level of learning. Ethics boxes address ethical issues, allowing you to apply your knowledge to real-life scenarios. A glossary of all key words may be easily accessed in the back of the book.

This book details key techniques used to investigate Capillary electrophoresis (CE). It focuses on simple and complex carbohydrates (polysaccharides), aminoacids, peptides and proteins, enzymes, and nucleic acids.

As the definitive reference for clinical chemistry, Tietz Textbook of Clinical Chemistry and Molecular Diagnostics, 5th Edition offers the most current and authoritative guidance on selecting, performing, and evaluating results of new and established laboratory tests. Up-to-date encyclopedic coverage details everything you need to know, including: analytical criteria for the medical usefulness of laboratory procedures; new approaches for establishing reference ranges; variables that affect tests and results; the impact of modern analytical tools on lab management and costs; and applications of statistical methods. In addition to updated content throughout, this two-color edition also features a new chapter on hemostasis and the latest advances in molecular diagnostics. Section on Molecular Diagnostics and Genetics contains nine expanded chapters that focus on emerging issues and techniques, written by experts in field, including Y.M. Dennis Lo, Rossa W.K. Chiu, Carl Wittwer, Noriko Kusukawa, Cindy Vnencak-Jones, Thomas Williams, Victor Weedn, Malek Kamoun, Howard Baum, Angela Caliendo, Aaron Bossler, Gwendolyn McMillin, and Kojo S.J. Elenitoba-Johnson. Highly-respected author team includes three editors who are well known in the clinical chemistry world. Reference values in the appendix give you one location for comparing and evaluating test results. NEW! Two-color design throughout highlights important features, illustrations, and content for a quick reference. NEW! Chapter on hemostasis provides you with all the information you need to accurately conduct this type of clinical testing. NEW! Six associate editors lend even more expertise and insight to the reference. NEW! Reorganized chapters ensure that only the most current information is included.

Over the last decade, high performance Capillary electrophoresis (HPCE) has emerged as a powerful and versatile separation technique that promises to rival high performance liquid chromatography when applied to the separation of both charged and neutral species. The high speed and high separation efficiency which can be attained using any of the various modes of HPCE has resulted in the increased use of the technique in a range of analytical environments. The procedures are, however, still in the early stages of development and several barriers remain to their adoption as the technique of choice for a range of analytical problems. One such barrier is the selection and optimization of the conditions required to achieve reproducible separations of analytes and it is in this area that this new book seeks to give assistance. The book is written by an international team of authors, drawn from both academic and industrial users, and the manufacturers of instruments. At its heart are a number of tables, divided into specific application areas. These give details of published separations of a wide range of archetypal analytes, the successful separation conditions and the matrix in which they were presented. These tables are based on separations reported since 1992 and are fully referenced to the original literature. The tables are supported by discussions of the problems that a particular area presents and the strategies and solutions adopted to overcome them. The general areas covered are biochemistry, pharmaceutical science, bioscience, ion analysis, food analysis and environmental science.