Brief Contents The Molecular Basis of Heredity, Variation, and EvolutionTransmission GeneticsCell Division and Chromosome HeredityInheritance Patterns of Single Genes and Gene InteractionGenetic Linkage and Mapping in EukaryotesGenetic Analysis and Mapping in Bacteria and Bacteriophage Application Chapter: Part I: Genetic Counseling DNA Structure and ReplicationMolecular Biology of Transcription and RNA ProcessingThe Molecular Biology of Translation Application Chapter: Part II: Genetic Testing Chromosome Chapter Title TBDGene Mutation, DNA Repair, and Homologous RecombinationChromosome Chapter Title TBDRegulation of Gene Expression in Bacteria and BacteriophageRegulation of Gene Expression in EukaryotesAnalysis of Gene Function by Forward Genetics and Reverse Genetics Application Chapter: Part III: Cancer Genetics Recombinant DNA Technology and Its ApplicationsGenomics: Genetics from a Whole-Genome PerspectiveOrganelle Inheritance and the Evolution of Organelle GenomesDevelopmental GeneticsGenetic Analysis of Quantitative Traits Application Chapter: IV: Personalized Medicine Population Genetics and Evolution at the Population, Species, and Molecular Levels Application Chapter: V: Forensic Genetics
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  About the Book   Develop problem-solving skills NEW! Preparing for Problem Solving Is a list of items designed to draw students’ attention back to the major ideas in the chapter and to the practical skills modeled there, before students work on the end-of-chapter problems. Located between the Chapter Summary and the end-of-chapter problems, the list identifies the specific knowledge and skills required to answer chapter problems. Genetic Analysis worked examples give students a consistent, repeatable method to help them learn and practice problem solving with unparalleled support for problem-solving instruction. Each Genetic Analysis example guides students with a unique, consistent three-step approach that trains them to Evaluate, Deduce, and then Solve problems. Every Genetic Analysis example is presented in a clear, easy-to-follow, two-column format that helps students see the Solution Strategy in one column and its corresponding execution in the Solution Step.Break It Down prompts in Genetic Analysis worked examples help students get started with formulating an approach to solving a problem. Break It Down models the concept of breaking down problem solving by deciphering the essential information stated in the problem.End-of-Chapter Problems are divided into separate sections labeled Chapter Concepts and Application and Integration. New to this edition are Collaboration and Discussion problems. The book offers a broad range of question types and levels of difficulty.  Answers to selected even-numbered problems appear in the Appendix.NEW! Collaboration and Discussion problems encourage student collaboration and appear in end-of-chapter problem sets. Whether assigned as homework or as part of flipped classroom activities, these exercises offer an array of opportunities for comprehensive and hands-on problem solving by small groups of students working together.The accompanying Student Solutions Manual and Study Guide provides additional worked problems along with tips for solving problems. It also presents solutions to all of the textbook problems in a consistent Evaluate, Deduce, and Solve format to complement the approach modeled in the Genetic Analysis examples in the textbook.   Engage students with applications of genetics and key content updates NEW! Five Application Chapters explore highly relevant, engaging topics in human genetics to illustrate some of the practical uses of genetics and genetic analysis. These short chapters are spaced periodically throughout the book to follow related prerequisite material. Every Application Chapter opens with a story that exemplifies why the topic of the chapter is important, and each contains several end-of-chapter problems to guide student learning and discussion. The topics of the chapters are: Genetic Counseling, Human Genetic Screening, Cancer Genetics, Human Evolutionary Genetics, and Forensic Genetics. Several chapters are revised to reflect changes in approaches to genetic analysis. In Chapter 5 (“Genetic Linkage and Mapping in Eukaryotes”), the discussion of mapping of molecular genetic markers has been substantially expanded. Chapter 13 (“Regulation of Gene Expression in Eukaryotes”) is revised to feature more discussion of epigenetic regulation and the roles of epigenetic readers, writers, and erasers. Chapter 14 (“Analysis of Gene Function by Forward Genetics and Reverse Genetics”) and Chapter 15 (“Recombinant DNA Technology and Its Application”) include greatly detailed coverage of the CRISPR–Cas9 system and its applications in gene editing. Chapter 16 (“Genomics: Genetics from a Whole-Ge
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About the Book   Develop problem-solving skills Preparing for Problem Solving Is a list of items designed to draw students’ attention back to the major ideas in the chapter and to the practical skills modeled there, before students work on the end-of-chapter problems. Located between the Chapter Summary and the end-of-chapter problems, the list identifies the specific knowledge and skills required to answer chapter problems. Collaboration and Discussion problems encourage student collaboration and appear in end-of-chapter problem sets. Whether assigned as homework or as part of flipped classroom activities, these exercises offer an array of opportunities for comprehensive and hands-on problem solving by small groups of students working together.   Engage students with applications of genetics and key content updates Five Application Chapters explore highly relevant, engaging topics in human genetics to illustrate some of the practical uses of genetics and genetic analysis. These short chapters are spaced periodically throughout the book to follow related prerequisite material. Every Application Chapter opens with a story that exemplifies why the topic of the chapter is important, and each contains several end-of-chapter problems to guide student learning and discussion. The topics of the chapters are: Genetic Counseling, Human Genetic Screening, Cancer Genetics, Human Evolutionary Genetics, and Forensic Genetics. Several chapters are revised to reflect changes in approaches to genetic analysis. In Chapter 5 (“Genetic Linkage and Mapping in Eukaryotes”), the discussion of mapping of molecular genetic markers has been substantially expanded. Chapter 13 (“Regulation of Gene Expression in Eukaryotes”) is revised to feature more discussion of epigenetic regulation and the roles of epigenetic readers, writers, and erasers. Chapter 14 (“Analysis of Gene Function by Forward Genetics and Reverse Genetics”) and Chapter 15 (“Recombinant DNA Technology and Its Application”) include greatly detailed coverage of the CRISPR—Cas9 system and its applications in gene editing. Chapter 16 (“Genomics: Genetics from a Whole-Genome Perspective”) and Chapter 18 (“Developmental Genetics”) have both undergone substantial revision to feature genomic approaches. Chapter updates include timely new information that became available just as writing was being completed.Examples include the discussion in Chapter 7 (“DNA Structure and Replication”) of the apparently stochastic pattern of DNA replication initiation in E. coli that was described in mid-2017; and the description in Application Chapter C (“Cancer Genetics”) of the CAR-T cell method for treating certain cancers that was recommended for approved by a panel of the U.S. Food and Drug Administration in mid-2017.Online Chapter: The Integration of Genetic Approaches: Understanding Sickle Cell Disease (previously Chapter 10 in the second edition) can be accessed through Mastering Genetics or in a custom version of this text.   Help students distill the most important “Take Home” lessons Caption Queries for selected figures in the book help students dissect the illustrated content and more fully understand its meaning and importance. Some Caption Queries require the student to solve a problem using information from the figure, some require an explanation be provided, and others ask students to expand on the information or idea in the figure. Caption Queries for all book figures are available as clicker questions for classroom use and assignable as homework in Mastering Genetics. Also available with Mastering Genetics Mastering™ is the teaching and learning platform that empowers you to reach every student. By combining trusted author content with digital tools developed to engage students and emulate the office-hour experience, Mastering personalizes learning and improves results for each student. With a wide range of interactive, engaging, and assignable activities, students are encouraged to actively learn and retain tough course concepts. Learn more about Mastering Genetics. Dynamic Study Modules (DSMs) help students study effectively on their own by continuously assessing their activity and performance in real time and adapting to their level of understanding. Students complete a set of questions with a unique answer format that also asks them to indicate their confidence level of confidence in their answer. Questions repeat until the student can answer them all correctly and confidently. These are available as graded assignments prior to class, and accessible on smartphones, tablets, and computers. Instructors can now remove questions from Dynamic Study Modules to better fit their course. Tutorials have been added to the library on topics like CRISPR—Cas, to help students master important and challenging concepts. Pearson eText, optimized for mobile, seamlessly integrates videos and other rich media with the text andgives students access to their textbook anytime, anywhere. Pearson eText is available with Mastering Genetics when packaged with new books, or as an upgrade students can purchase online. The Pearson eText mobile app offers:Offline access on most iOS and Android phones/tablets.Accessibility (screen-reader ready)Configurable reading settings, including resizable type and night reading modeInstructor and student note-taking, highlighting, bookmarking, and search toolsEmbedded videos for a more interactive learning experience Check out the preface for a complete list of features and what's new in this edition.
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Produktdetaljer

ISBN
9780134832258
Publisert
2018-08-07
Utgave
3. utgave
Utgiver
Vendor
Pearson
Vekt
1020 gr
Høyde
272 mm
Bredde
213 mm
Dybde
24 mm
Aldersnivå
U, 05
Språk
Product language
Engelsk
Format
Product format
Heftet
Antall sider
416

Om bidragsyterne

About our authors

Mark F. Sanders has been a faculty member in the Department of Molecular and Cellular Biology at the University of California, Davis, since 1985. In that time, he has taught more than 150 genetics courses to nearly 35,000 undergraduate students. Although he specializes in teaching the genetics course for which this book is written, his genetics teaching experience also includes a genetics laboratory course, an advanced human genetics course for biology majors, and a human heredity course for nonscience majors, as well as introductory biology and courses in population genetics and evolution. He has also served as an advisor to undergraduate students and in undergraduate education administration, and he has directed several undergraduate education programs.

Dr. Sanders received his B.A. degree in Anthropology from San Francisco State University, his M.A. and Ph.D. degrees in Biological Anthropology from the University of California, Los Angeles, and 4 years of training as a postdoctoral researcher studying inherited susceptibility to human breast and ovarian cancer at the University of California, Berkeley.

John L. Bowman is a professor in the School of Biological Sciences at Monash University in Melbourne, Australia, and an adjunct professor in the Department of Plant Biology at the University of California, Davis, in the United States. He received a B.S. in Biochemistry at the University of Illinois at Urbana-Champaign in 1986 and a Ph.D. in Biology from the California Institute of Technology in Pasadena, California. His Ph.D. research focused on how the identities of floral organs are specified in Arabidopsis (described in Chapter 18), and he conducted postdoctoral research at Monash University on the regulation of floral development. From 1996 to 2006, his laboratory at UC Davis investigated developmental genetics of plants, focusing on how leaves are patterned. From 2006 to 2011, he was a Federation Fellow at Monash University, where his laboratory is studying land plant evolution using a developmental genetics approach. He was elected a Fellow of the Australian Academy of Science in 2014. At UC Davis he taught genetics, from Mendel to cancer, to undergraduate students, and he continues to teach genetics courses at Monash University.