Physiologicalrelevance. It has always been our goal to help students connect biochemistry to their own lives on a variety of scales. Pathways and processes are presented in a physiological context so students can see how biochemistry works in the body and under different conditions, and Clinical Application sections in every chapter show students how the concepts they are studying impact human health. The eighth edition includes a number of new Clinical Application sections based on recent discoveries in biochemistry and health.
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The ninth edition of Biochemistry remains true to the integrity of the original Stryer text. Showcasing exceptionally clear writing, innovative graphics, coverage of the latest research techniques and advances, and a signature emphasis on physiological and medical relevance.
FOCUS OF THE NINTH EDITION
In developing a ninth edition, the focused on three specific areas to help biochemistry students manage the complexity of the course, engage with the material, and become more proficient problem solvers.
Integrated text and media to help student visualize
Biochemistry is paired for the first time with SaplingPlus, the most innovative digital solution for Biochemistry students. Media-rich resources have been developed to support students' ability to visualize and understand individual and complex biochemistry concepts. Built-in assessments help students keep on track with reading and become proficient problem solvers with the help and guidance of hints and targeted feedback--ensuring every problem counts as a true learning experience.
Promote effective problem-solving
Tools to help students think critically and approach problem solving. A diverse selection of problem types help students develop skills and strategies to approach both single concept problems and multi-concept problems. Higher order thinking is promoted with unique case studies, new Think/Pair/Share Problems and new specialized problems. Built-in assessments help students keep on track with reading and become proficient problem solvers with the help and guidance of hints and targeted feedback--ensuring every problem counts as a true learning experience.
Provide tools and resources for active learning
A number of new features are designed to help instructors create a more active environment in the classroom. Tools and resources are provided within the text, SaplingPlus and instructor resources.
Since its first edition in 1975, this extraordinary textbook has helped shape the way that biochemistry is taught, and has become one of the most trusted books in the field. It offers exceptionally clear writing, innovative graphics, coverage of the latest research techniques and advances, and a signature emphasis on physiological and medical relevance. The seventh edition has been updated throughout, including many new advances on genetic regulation, and revamped coverage of the integration of metabolism in the context of diet and obesity. Numerous new medical examples have been added throughout to make biochemistry real and relevant to students. The addition of new contributing author Gregory Gatto, an active pharmaceutical researcher at GlaxoSmithKline, ensures that the seventh edition presents the latest techniques that students need to understand in biochemistry research today. The end-of-chapter problems have also been revised and updated, providing students with great new exercises to test their understanding. The book is supported by a companion website (
www.whfreeman.com/berg7e) which provides a variety of tools to aid understanding and learning including concept-based tutorials, animated techniques, self-assessment tools, and living figures that allow protein structures to be explored in 3-D.
Paul Berg grew up in Brooklyn. A teacher awakened his scientific bent when she encouraged students to conduct their own research projects. Berg was studying biochemistry at Pennsylvania State University when World War II broke out. He served on a submarine before obtaining his degree in 1948. He received his doctorate at Case Western Reserve University, and after a period in Copenhagen, he worked with Arthur Kornberg in St. Louis, Missouri. Berg made his Nobel Prize-awarded discovery at Stanford University. In 1947 he married Mildred Levy, and the couple had a son, John.
DNA carries organisms' genomes and also determines their vital processes. The ability to artificially manipulate DNA opens the way to creating organisms with new characteristics. In conjunction with his studies of the tumor virus SV40, in 1972, Paul Berg succeeded in inserting DNA from a bacterium into the virus' DNA. Berg thereby created the first DNA molecule made of parts from different organisms. This type of molecule became known as hybrid DNA or recombinant DNA. Among other things, Berg's method opened the way to creating bacteria that produce substances used in medicines.
Digital innovation and trusted authorship transform the way biochemistry students learn.
The ninth edition of Biochemistry remains true to the integrity of the original Stryer text. Showcasing exceptionally clear writing, innovative graphics, coverage of the latest research techniques and advances, and a signature emphasis on physiological and medical relevance. Those defining features are at the heart of this edition.
Biochemistry is now supported in Achieve, Macmillan's new online learning platform. Achieve is the culmination of years of development work put toward creating the most powerful online learning tool for chemistry students. Achieve includes an interactive eBook as well as our renowned assessments and innovative, interactive Metabolic Map. Students will be able to focus their study with adaptive quizzing and more clearly see the relevance of chemistry through case studies. Instructor resources, including tools for active learning are all housed in this exciting new platform.
Achieve features a flexible suite of resources to support learning core concepts, visualization, problem-solving, and assessment. This powerful platform houses all student and instructor resources. You can assign what you want or download resources as you need. Powerful analytics and quick insights in Achieve pair with exceptional content to provide an unrivaled learning and teaching experience.
Paul Berg, a Nobel Prize winner, a pioneer in the field of genetic engineering and a past president of what would become the American Society for Biochemistry and Molecular Biology, died Feb. 15 at age 96. He had been living on the campus of Stanford University, where he was an emeritus professor.
Berg also took part in the ethical debate over recombinant DNA. He had helped organize the 1975 Asilomar conference in California on the potential perils of the new technology. The meeting of some 140 international scientists set early standards for genetic research, with an eye to safeguarding public health.
Berg was born June 30, 1926, in Brooklyn, New York. His parents were Jewish immigrants from Russia; his father worked in the garment business and his mother was a homemaker. After trying unsuccessfully to enlist at age 17 as a pilot, the younger Berg served on Navy vessels during World War II.
Kornberg asked Berg to join him on the faculty of the Stanford School of Medicine in 1959, as it was moving into its current Palo Alto campus and expanding research efforts. The two helped launch the biochemistry department, which Berg chaired from 1968 to 1974,
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Together with Arthur Kornberg and US geneticist Charles Yanofsky in 1980 Berg, was the cofounder of the DNAX Research Institute of Cellular and Molecular Biology in Palo Alto CA, United States, a biotechnology research institute focusing on the ethical use and implementation of recombinant DNA technologies related to nucleic acid biochemistry and the advancement of vaccine and genetic engineering to extend the medical and moral health, bioethics and the welfare and prosperity of all of humanity.
All claims expressed in this article are solely those of the authors and do not necessarily represent those of their affiliated organizations, or those of the publisher, the editors and the reviewers. Any product that may be evaluated in this article, or claim that may be made by its manufacturer, is not guaranteed or endorsed by the publisher.
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