* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
Download 21 356 Molecular Biology Spring 2017
Community fingerprinting wikipedia , lookup
Gene regulatory network wikipedia , lookup
Molecular cloning wikipedia , lookup
Epitranscriptome wikipedia , lookup
Promoter (genetics) wikipedia , lookup
Cre-Lox recombination wikipedia , lookup
RNA polymerase II holoenzyme wikipedia , lookup
RNA silencing wikipedia , lookup
List of types of proteins wikipedia , lookup
Eukaryotic transcription wikipedia , lookup
Endogenous retrovirus wikipedia , lookup
Molecular evolution wikipedia , lookup
Non-coding DNA wikipedia , lookup
Non-coding RNA wikipedia , lookup
Vectors in gene therapy wikipedia , lookup
Nucleic acid analogue wikipedia , lookup
Artificial gene synthesis wikipedia , lookup
Deoxyribozyme wikipedia , lookup
Silencer (genetics) wikipedia , lookup
CourseSyllabusSpring2017 120:356MolecularBiology INSTRUCTORS: Susan Seipel EMAIL: [email protected] OFFICE/OFFICE HOURS: Boyden 312; W,F 1:00 PM – 2: 00 PM, or by appointment COURSE WEBSITE: Blackboard COURSELOCATION(S): Boyden 413 MEETINGTIME(S):W,F 11:30 AM – 12:50 PM COURSEDESCRIPTION: This course covers topics focused on gene expression and its regulation in eukaryotic cells. Specific areas of focus include: Gene organization and chromosome structure, Mechanisms of replication, Mutations, Mechanisms of DNA damage and repair, Transcription and regulation of RNA synthesis, Posttranscriptional processes and regulation, Translation and post-translational modifications, Nucleic acid biotechnology, Structure and roles of noncoding RNA, and Genomics and databases. PREREQUISITES: 21:120:201, 21:120:202, 21:120:205, and 21:120:206 OR 21:120:101, 21:120:102, 21:120:201, and 21:120:202 REQUIRED TEXT: David P. Clark and Nanette J. Pazdernik(2013) Molecular Biology:Second Edition, AP Cell Press ISBN: 9870-12-378594-7 LEARNING OBJECTIVES/GOALS: Upon successful completion of this course, participants will be able to: 1. Describe how the structure of DNA, RNA, Proteins, Lipids, and Carbohydrates contributes to their specific functions. 2. Describe the central dogma of the flow of genetic information. 3. Describe the intermolecular forces used to regulate interactions between DNA, RNA, Proteins, Lipids, and Carbohydrates. 4. Discuss the roles of non-coding RNAs in regulating gene expression and cellular function 5. Describe how DNA, RNA, and Proteins are synthesized, regulated, and degraded in cells Page 1 Course Syllabus Spring 2017 120:356 Molecular Biology SCHEDULE AND COURSE OUTLINE: Dates listed by week; lectures will meet twice every week. Weekly dates of quizzes and due dates for written projects are listed. Due dates for these assignments will be regularly updated on the course Blackboard site. DATE MEETING TOPIC NOTES/READING ASSIGNMENTS/EXAMS 1/18 Cells and Organisms Chapter 1 1/20 Basic Genetics Chapter 2 1/25 DNA, RNA, and Proteins Chapter 3 1/27 Genomes and DNA Chapter 4 2/1 Manipulation of Nucleic Acids Chapter 5 2/3 Polymerase Chain Reaction Chapter 6 2/8 Cloning Genes for Analysis Chapter 7 2/10 DNA Sequencing Chapter 8 2/15 Exam 1 Chapters 1-7 2/17 Genomics & Systems Biology Chapter 9 2/22 Cell Division and DNA Replication Chapter 10 2/24 Transcription of Genes Chapter 11 3/1 Processing of RNA Chapter 12 3/3 Protein Synthesis Chapter 13 3/8 Protein Structure and Function Chapter 14 3/10 Proteomics: The Global Analysis of Proteins Chapter 15 3/22 Regulation of Transcription in Prokaryotes Chapter 16 3/24 Exam II Chapters 8-15 3/29 Regulation of Transcription in Eukaryotes Chapter 17 Page 2 3/31 Regulation at the RNA Level Chapter 18 4/5 Analysis of Gene Expression Chapter 19 4/7 Plasmids Chapter 20 4/12 Viruses Chapters 21 4/14 Mobile DNA Mutation and Repair Chapters 22 & 23 4/19 Mobile DNA Mutation and Repair Chapters 22 & 23 4/21 Exam III Chapters 16-22 & 23 4/25 Recombination Chapter 24 4/27 Course Overview Chapters 1-24 DATE OF FINAL EXAM: FRIDAY MAY 5TH, 8:30 – 11:30 AM GRADING POLICY: Your grade for this course will be determined based on the categories listed in the table below. Average of top two semester exam grades (the lowest semester exam grade is dropped) 70 % Final Exam TOTAL 30 % 100 % Percentages are converted to letter grades according to University policy, and follow the distribution given below: Final % Letter < 59.49 59.5–69.49 69.5-74.49 75.5-79.49 79.5-84.49 84.5-89.49 89.5-100 F D C C+ B B+ A Failing Poor Satisfactory Good Excellent Outstanding ATTENDANCE, MAKE-UP, AND LATENESS POLICY: Attendance is highly encouraged. If you must miss class for a valid reason, please discuss what material was missed with your instructor as soon as possible. Exam attendance policy: No one will be allowed to start an exam after 15-minutes from the start time of the exam! No exceptions. There are NO make-up exams in this course; if you miss an exam then it will be counted as your dropped grade (Note: Everyone must take the final exam). Academic Dishonesty: The course has a zero tolerance policy for academic dishonesty, including plagiarism and cheating. Instances of dishonesty will be punished by a zero on the assignment and consultation with the Academic Integrity Officers to determine if further action is required. If you have any questions about what constitutes plagiarism or cheating, please ask your instructors or refer to the academic integrity websites for Rutgers and NJIT: ! ! ! http://academicintegrity.rutgers.edu/academic-integrity-at-rutgers http://studentconduct.rutgers.edu/ http://www.njit.edu/academics/integrity.php Page 3