* Your assessment is very important for improving the workof artificial intelligence, which forms the content of this project
Download CTY Genetics Syllabus
Non-coding DNA wikipedia , lookup
No-SCAR (Scarless Cas9 Assisted Recombineering) Genome Editing wikipedia , lookup
Point mutation wikipedia , lookup
Deoxyribozyme wikipedia , lookup
Molecular cloning wikipedia , lookup
Extrachromosomal DNA wikipedia , lookup
Cre-Lox recombination wikipedia , lookup
Therapeutic gene modulation wikipedia , lookup
Population genetics wikipedia , lookup
Genome (book) wikipedia , lookup
Genetic engineering wikipedia , lookup
Site-specific recombinase technology wikipedia , lookup
Vectors in gene therapy wikipedia , lookup
Artificial gene synthesis wikipedia , lookup
Designer baby wikipedia , lookup
History of genetic engineering wikipedia , lookup
CTY Genetics Syllabus Week 1: Review and Mendelian Genetics Day 1 Topic Introduction and Review • Classroom Policies/ Syllabus • Lab Safety • Practice of Science • Cell Biology • Mitosis/Meiosis • Model Organisms What (DUE DATE) Morning • Ice Breaker Game/Introductions • Distribute Syllabus, Discuss Course Outline • Lab Safety Introduction and equipment practice Introduction to Pipettes • Scientific Method and Lab Reports Safety Rules PostersAfternoon • Lecture/Notes to review Cell Biology • Scientific Drawing Practice – Draw/Label Animal Cells • Lecture/Notes- Review Mitosis and Meiosis • Build and Compare Models of Mitosis/Meiosis Evening (Assignments) • Review Cell Biology/Mitosis/Meiosis • Reading on Patterns of Inheritance • Lab Notebook Biographies- on page 1 of the lab notebook, write a short biography of yourself and your study of science. • Write a short paper in your lab notebook about the “perfect” model organism for studying genetics (~1 page) 2 Mendelian Genetics • Macromolecule Properties and Identification • Mendelian Genetics and Punnett Squares Morning • Model Organism Characteristics • Lecture/Notes on Macromolecules Carbs/Protein/Nucleic Acid/Lipid • Lab Safety and Procedures Review • ID of Macromolecules Lab Afternoon • Lecture/Class notes -Mendel, dominant/recessive/, genotype/phenotype, mono/dihybrid crosses, Laws of Independent Assortment and Random Segregation • Practice with Punnett Squares • Lecture/Class notes-Pedigrees • Using Pedigrees to Track Inbreeding and Disease Alleles Activity Evening • Introduction to Geniverse (online genetics web activity) Course Outline CTY Genetics Page 2 Day 3 Topic What Mendelian Morning Genetics pt 2 • Warm-Up challenge- Murder Mystery • Codominance • Lecture/Notes on Mendelian Genetics part 2 • Multiple alleles Codominance, multiple allele traits, incomplete dominance • Incomplete Dominance • Genetics in Harry Potter’s World Activity • Lecture/Notes on Pleiotropy and Epistasis • Pleiotropy • Discussion and Practice using Pedigrees with Complex Traits • Epistasis Afternoon • Discussion- Genetic Counseling • Case Study/Debate “Not Exactly…” parts 1&2 Evening • Independent Student Research on a Genetic Disease and poster preparation to share in class tomorrow • Reading on Complex Traits 4 Genetic Diseases Morning • Penetrance • Student Presentations on Genetic Diseases • Expressivity • “The Making of the Fittest”Afternoon • HHMI Mendelian Genetics, Probability, Pedigree Activity/Worksheets on Sickle Cell Trait • Penetrance and Expressivity of Traits • Survey of Student Phenotypes/Genotypes Ratios Evening • Independent Reading on Chromosome Structure • pgs 4-9; 589-591; 599-614 • Guided Review sheet for Classical Genetics Quiz on Day 5 Chromosomal Morning Basis of Genetics • Quiz on Mendelian Genetics • Sex Linkage • Chromosomal Basis of Genetics • Chromosome • Discovery of Sex-Linkage Structure • Advantages/Disadvantages of Sex-Linkage Afternoon • Introduction to Chromosome Structure • Building Model Chromosomes • Chromosomal Abnormalities • Paper Karyotypes for Genetic Disorders • Modern Techniques for Analyzing Chromosome Structure and Number Sunday Evening • Finish Geniverse Simulation 5 Course Outline CTY Genetics Page 3 Week 2: Molecular Genetics and The Central Dogma Day Topic 6 Gene Linkage • Discovery of Linkage and Recombination • χ2 Tests for linkage What (time) • How Morning (140 minutes) • Warm-Up Discussion- Hardest and Easiest Challenges in Geniverse and WHY (15 minutes) • Lecture/Class Notes- Thomas Hunt Morgan, the fruit fly, discovery of linkage (45 minutes) • Guided introduction- χ2 Tests (45 minutes) • Paired Practice using χ2 tests (30 minutes) Afternoon (120 minutes) • Mapping Genes with Linkage Markers Activity (100 minutes) • Lecture/Review of Gene Linkage and Mapping (20 minutes) Day Topic 7 DNA Structure • Discovery of DNA Structure • DNA Building Blocks Evening (120 minutes) • Gene Mapping Now and Then (120 Minutes) Web-reading and online quizlet What (time) • How Morning (140 minutes) • Warm-Up Discussion and Cases: Research Ethics (20 minutes) • Lecture/Class Notes- Discovery of DNA (20 minutes) • Class Debate: The role of Rosalind Franklin (15 minutes) • Lecture/Class Notes – Structure of DNA (40 minutes) • Model Building- Structure of DNA -paired construction and presentation to the class (45 minutes) • Review of Lab Notebook and Lab Report Format (10 minutes) Afternoon (120 minutes) • Lab Activity- Isolation of DNA and comparison of diploid and polyploid DNA yields (120 minutes) Evening (120 minutes) • Individual Lab Report Preparation • Pop-Culture Genetics Readings Course Outline CTY Genetics Page 4 Day Topic 8 Mutation • DNA Replication • Causes and Results of Mutation • Epigenetics • Imprinting and Disease Day Topic 9 DNA-RNA-Protein • Transcription • Translation • Bacterial and Viral MolBio Tools What (time) • How Morning (140 minutes) • Warm-Up Discussion: Molecular Biology in Pop Culture (15 minutes) • Lecture/Class Notes: DNA Replication (45 minutes) • Activity: Human PCR Machines (30 minutes) • Lecture/Class Notes: Mutations in DNA (45 minutes) Afternoon (120 minutes) • Lecture/Class Notes- Epigenetics, Imprinting and Disease (60 minutes) • Class Discussion- Nuclear Reprogramming (20 minutes) • Research/Reading Activity – Who/What is Mitochondrial Eve? (40 minutes) Evening (120 minutes) • Case Study Discussion/Debate “Not Exactly…” parts 3&4 (120 minutes) Continuation of genetic counseling case study with molecular data for analysis What (time) • How Morning (140 minutes) • Warm-Up Activity: Draw and Label a Gene (10 minutes) • Lecture/Class Notes: Transcription and Translation (25 minutes) • Scientific Drawing- Production of a Protein from DNA to export (20 minutes) • Class Discussion- Review of Mutation Effects on DNA (10 minutes) • Modeling Activity- DNA-RNA-Protein using paper/beads/string to transcribe/translate/fold gene products(40 minutes) • Begin Plasmid Mapping Lab Activity (35 minutes) Restriction Digest Afternoon (120 minutes) • Plasmid Mapping Gel Electrophoresis (45 minutes) • Lecture/Class Notes- Bacterial and Viral DNA Tools (30 minutes) • pGLO Transformation Lab Part 1 (45 minutes) Evening (120 minutes) • Plasmid Mapping Data Analysis/plasmid assembly (50 minutes) • Student guided study for Quiz #2- central dogma Course Outline CTY Genetics Page 5 Day Topic 10 Regulating Gene Expression • The lac operon • siRNA/RNAi • microarrays • qPCR What (time) • How Morning (140 minutes) • Quick Questions: Review Plasmid Mapping (15 minutes) • Quiz #2: Central Dogma (20 minutes) • Lecture/Class Notes: Methods of gene regulation- promoters, silencers, and operons (35 minutes) • HexBot Battles of the lac operon (30 minutes) Robot simulation of effect of inducers/repressors • Scientific Drawing: Tracing genes from DNA-RNA-Protein Structure with ID of regulator locations in each step (20 minutes) • Lecture/Class Notes- Assays for gene expression- microarray and qPCR (20 minutes) Afternoon (120 minutes) • siRNA Video- Nature Video (10 minutes) Nature Video Link to Youtube • Discussion of Knockdown vs knockout regulation of gene expression- why bother? (15 minutes) • HexBot Battles part 2: design a model of siRNA (30 minutes) • pGLO Transformation Lab- part 2 (60 minutes) Evening (120 minutes) (Sunday?) • Independent student work on pGLO lab reports (60 minutes) • Visualizing Gene Expression Patterns- “Click and Learn” activity from HHMI Biointeractives (45 minutes) (http://www.hhmi.org/biointeractive/visualizing-geneexpression-patterns) Course Outline CTY Genetics Page 6 Week 3: Topics in Genetics: Population Biology, Ecology, Biotechnology Day Topic 11 Population Genetics • Variation • Selection • Speciation • Darwin • Hardy-Weinberg • Evolution What (time) • How Morning (140 minutes) • Warm-Up Activity- Guided Primary Literature ReadingScience 11 February 1994: Vol. 263 no. 5148 pp. 802-805 (M. Chalfie et al) (30 minutes) GFP as a living cell label • Lecture/Class Notes- Variation, Selection, Speciation, Darwin and Hardy/Weinberg (45 minutes) • Student Worksheet on Hardy-Weinberg (15 minutes) • Student DNA Sample Isolation for Hardy-Weinberg Lab (50 minutes) Afternoon (120 minutes) • Hardy-Weinberg Lab- gel electrophoresis (45 minutes) • “Got Lactase?” HHMI short video and discussion (30 minutes) • HHMI web activity on Lactase regulation (15 minutes) • Hardy-Weinberg Lab Data Analysis/Summation (30 minutes) Evening (120 minutes) • HHMI- Using DNA to Trace Human Migration (35 minutes) DNA Homology as Evidence for Evolution • Hardy-Weinberg Lab Report (60 minutes) • Textbook reading about recombinant DNA strategies (25 minutes) Day Topic 12 What (time) • How Recombinant DNA, Morning (140 minutes) Transgenics, • Warm-Up Discussion- Is it a clone? (10 minutes) Cloning/Stem Cells • Lecture/Class Notes- Transgenic Techniques (30 minutes) • Totipotent/ • HHMI Transgenic FlyLab – computer simulation (60 pluripotent/ES minutes) stem cells • Class Debate- Ethics of Cloning (40 minutes) • iPS Cells • Nuclear Afternoon (120 minutes) Reprogramming • Lecture/Class Notes: Introduction to Stem Cells (30 minutes) • Cell Fate and • Primary Literature Reading/Presentation in teams: iPS and Patterning nuclear reprogramming (Yamanaka and Gurdon papers) (60 minutes) • Class Discussion- Future of Stem Cell Research (30 minutes) Course Outline CTY Genetics Page 7 Evening (120 minutes) • Hardy-Weinberg Lab Notebook Reports • Student selected independent reading and written summary of a current published work in iPS/cloning/stem cell research (75 minutes) Day Topic 13 Cancer as a Genetic Disease • Cell Cycle • Oncogenes • DNA Fingerprinting • Genetic-Based Treatment of Disease What (time) • How Morning (140 minutes) • Student iPS research presentations (60 minutes) • Lecture/Class Notes- Cell Cycle, p53/ Rb/oncogenes (45 minutes) • “I always wondered…” and “This is weird, but what would happen if…” Genetics Q&A/Discussion (20 minutes) • Lecture/Class Notes- Telomeres and Chromosomal Aging (15 minutes) Afternoon (120 minutes) • Review Lab- DNA Crime Solving (120 minutes) Evening (120 minutes) • DNA Fingerprinting Stories • Review for Post-Assessment (90 minutes) Day Topic 14 Genetic Technology and You • GMOs What (time) • How Morning (140 minutes) • Quick Review and Q&A for Post-Assessment (15 minutes) • Post Assessment (45 minutes) • Class Discussion- Who Owns your Genes? (20 minutes) • Lecture/Class Notes- GMO and GMO Food (40 minutes) • Class Debate. Yes or No to GMOs? (20 minutes) Afternoon (120 minutes) • GMO Food Testing Lab and discussion (120 minutes) Evening (120 minutes) • Gattaca- film and discussion Day Topic What (time) • How Course Outline CTY Genetics Page 8 15 Ethical Use of Genetic Technology • Ethics • Genetic/Genomic Based Treatment and Diagnosis Morning (140 minutes) Course Outline CTY Genetics • • • Lecture/Class Notes- Genetic and Genomic Disease Treatment Case Study parts 5+6 (60 minutes) Student Discussion/Debate on Genetic Technology and Ethics (60 minutes) Final Q&A about Genetics Topics (20 minutes) Page 9