BIOLOGY 220 - GENETICS FALL SEMESTER 2004 INSTRUCTOR: Dr. Nancy S. Kirkpatrick 220 Crawford Hall - 635-2894 nkirkpatrick@lssu.edu OFFICE HOURS: MWF - 11:00-11:50; TW - 1:00-1:50 PREREQUISITES: BL132 or BL110/111, CH116 TEXTBOOK: Genetics: A Conceptual Approach, by Benjamin A. Pierce Laboratory Manual of Genetics, 4th ed. by Winchester & Wejksnora COURSE ORGANIZATION: This course is divided into three major subdivisions - Mendelian or transmission genetics, molecular biology, and population genetics. During the section on Mendelian genetics, we will cover mitosis and meiosis, traditional genetics problems, modes of inheritance, and chromosomal structure. The section on molecular biology will include information on DNA structure and replication, transcription, translation, gene cloning, genomics, and current research in DNA technology, and ethics in genetics. Topics in population genetics will include aspects of the Hardy-Weinberg theory. COURSE OBJECTIVES: At the conclusion of this course, a student will be able to: Solve and analyze genetics problems at the multi-gene level Analyze pedigrees for an unknown genetic trait Calculate chi-square values for a given set of results Identify the stages of mitosis at the microscopic level Contrast the stages of meiosis with that of mitosis Construct a DNA molecule Recognize and discuss the essential elements of DNA replication, RNA transcription, and protein translation Discuss areas of current research in DNA technology Construct a simple restriction enzyme map Carry out an experiment in gene transmission using Drosophila as a test organism Perform simple population problems using the Hardy-Weinberg equation EXAMS: There will be four hourly exams worth 15% each. These will be a combination of problems, essays and objective questions. MAKE-UP EXAM POLICY: Make-up exams are time-consuming and a general pain in the neck. Therefore, you must have a very good excuse to not take an exam at the regularly scheduled time. If you have to miss an exam, you must inform me ahead of time either in person, by phone or phone mail, or via e-mail. The make-up exam will take place within one week's time of the original test at the Testing Center in the Library. Contact Carol Boger, x2452, to make arrangements, then let me know so that I can take the test to her. HOMEWORK & QUIZZES: Each week several questions and/or problems from the current chapter will be assigned. Completion of all homework assignments will be worth 2.5% of your final grade. Every Friday you will have a "Homework Quiz" consisting of one or two problems very similar to the assigned homework problems. These quizzes will be graded and comprise 7.5% of your final grade. No one will be permitted to make up a quiz; however, each student will be able to drop his/her lowest quiz . LABORATORY: Check to be sure that you have signed up for a lab section. The lab will constitute 30% of your total grade. The laboratory syllabus will explain the lab in more detail. Feel free to ask about homework problems in lab. GRADE DETERMINATION: 4 exams @ 15% Homework quizzes Homework Laboratory 60% 7.5% 2.5% 30% 100% CHEATING: Will not be tolerated. See current university catalog for policies regarding cheating and plagiarism. LAB QUIZ SCHEDULE: Tues./Wed. Oct. 112/13 Tues/Wed. Dec. 14/15 EXAM SCHEDULE: Monday, September 20 Monday, October 18 Monday, November 15 FINAL EXAM: Thursday, December 16 @7:30 a.m. ALL DATES ARE SUBJECT TO CHANGE AT THE DISCRETION OF THE INSTRUCTOR. In compliance with Lake Superior State University policy and equal access laws, disability-related accommodations or services are available. Students who desire such services are to meet with the professor in a timely manner, preferably the first week of class, to discuss their disability-related needs. Students will not receive services until they register with the Resource Center for Students with Disabilities (RCSD). Proper registration will enable the RCSD to verify the disability and determine reasonable academic accommodations. RCSD is located in the Library basement, extension 2454. CHAPTERS TO BE COVERED IN PIERCE: 1, 2, 3, 4 - Exam I (Sept. 20) 5, 6, 7 - Exam II (Oct. 18) 10, 12, 13, 18 (Nov. 15) 15, 16, 20, 23 (Dec. 16) Expanded Contents: Ch. 1 - Introduction to Genetics Ch. 2 - Chromosomes & Cellular Reproduction Eukaryotic Cell Reproduction The Cell Cycle & Mitosis Sexual Reproduction And Genetic Variation Meiosis Ch. 3 - Basic Principles of Heredity Mendel's Success Genetics Terminology Monohybrid Crosses The Testcross Incomplete Dominance Dihybrid Crosses Independent Assortment Trihybrid Crosses & The Forkline Approach Goodness-Of-Fit Chi-Square Test Ch. 4 - Sex Determination & Sex-Linked Characteristics Chromosomal Sex-Determining Systems Genetic Sex-Determining Systems Sex Determination In Drosophila Sex Determination In Humans Sex-Linked Characteristics X-Linked White Eyes In Drosophila Nondisjunction Z-Linked Characteristics Exam I - Monday, September 20 Ch. 5 - Extension & Modifications Of Basic Principles Lethal Alleles Multiple Alleles ABO Blood Group Epistasis Sex-Influenced & Sex-Limited Traits Cytoplasmic Inheritance Environmental Effects On Gene Expression Ch. 6 - Pedigree Analysis & Applications Analyzing Pedigrees Autosomal Recessive Traits Autosomal Dominant Traits X-Linked Recessive Traits X-Linked Dominant Traits Y-Linked Traits Twin Studies Adoption Studies Genetics Counseling & Testing Ch. 7 - Linkage, Recombination, & Eukaryotic Gene Mapping Complete Linkage Compared With Independent Assortment Crossing Over With Linked Genes Calculation Of Recombination Frequency Coupling & Repulsion Physical Basis of Recombination Gene Mapping With Recombination Frequencies The Two-Point Testcross Gene Mapping With the Three-Point Testcross Deletion Mapping Somatic Cell Hybridization EXAM II - Monday, October 18 Ch. 10 - DNA: The Chemical Nature Of the Gene Early Studies of DNA DNA As The Source of Genetic Information Watson & Crick's Discovery of the Three-Dimensional Structure Of DNA RNA as Genetic Material Primary Structure of DNA Secondary Structure of DNA Ch. 12 - DNA Replication Semiconservative DNA Replication Meselson & Stahl's Experiment Modes of Replication Requirements of Replication Direction of Replication The Mechanism of Replication Bacterial DNA Replication Eukaryotic DNA Replication Ch. 18 - Recombinant DNA Technology Recombinant DNA Techniques Cutting & Joining DNA Fragments Viewing DNA Fragments Locating DNA Fragments With Southern Blotting And Probes Cloning Genes Finding Genes Polymerase Chain Reaction DNA Sequencing Applications of Recombinant DNA Technology Pharmaceuticals Specialized Bacteria Agricultural Products Oligonucleotide Drugs Genetic Testing Gene Therapy Gene Mapping DNA Fingerprinting Concerns about Recombinant DNA Technology Ch. 13 - Transcription The Structure of RNA Classes of RNA The Template The Substrate for Transcription The Transcription Apparatus The Process of Bacterial Transcription Initiation Elongation Termination The Process of Eukaryotic Transcription Transcription & Nucleosome Structure Transcription Initiation RNA Polymerase II Promoters RNA Polymerase I Promoters RNA Polymerase III Promoters Evolutionary Relationships & the TATA-Binding Protein Termination EXAM III - Monday, November 15 Ch. 15 - The Genetic Code & Translation The Structure & Function of Proteins Breaking the Genetic Code The Degeneracy of the Code The Reading Frame & Initiation Codons Termination Codons Universality of the Code The Process of Translation Binding of Amino Acids to tRNAs Initiation of Translation Elongation Termination Ch. 16 - Control of Gene Expression: Prokaryotes Levels of Gene Control Genes & Regulatory Elements DNA-Binding Proteins Operon Structure The lac Operon of E. coli lac Mutations The trp Operon of E. coli Attenuation Ch. 20 - Organelle DNA Mitochondrion & Chloroplast Structure The Genetics of Organelle-Encoded Traits The Endosymbiont Theory Gene Structure & Organization of mtDNA Replication, Transcription, and Translation of mtDNA Evolution of mtDNA Gene Structure & Organization of cpDNA Replication, Transcription, and Translation of cpDNA Evolution of cpDNA Ch. 23 - Population & Evolutionary Genetics Calculation of Genotypic Frequencies Calculation of Phenotypic Frequencies The Hardy-Weinberg Law Assumptions of the Hardy-Weinberg Law Implications of the Hardy-Weinberg Law Extension of the Hardy-Weinberg Law Testing for Hardy-Weinberg Law Population Estimating Allelic Frequencies with the Hardy-Weinberg Law Nonrandom Mating Changes in Allelic Frequency Mutation Migration Genetic Drift Natural Selection EXAM IV - 7:30 a.m., Thursday, December 16