Eric Lander的MOOC
Schedular
序号 | 领域 | 具体内容 |
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1 | Introduction | Introduction Medical revolutions in Biology Biological applications in forensics, history, and agriculture The diversity of life An overvie of evolution and a comparison of prokaryotic and eukaryotic cells The fundamental principles and intellectual framework of biology |
2 | Biochemistry | Biochemistry of life Framework, Buchner, and Fractionating life Molecular composition of cells Covalent bonds Non-covalent bonds Lipids and phospholipids: creating boundaries High energy molecules: ATP and carbohydrates |
3 | Proteins and Protein Structure Amazing proteins: primary structure Meet the amino acids Secondary structure Tertiary and quaternary structure |
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4 | Enzymes Design a channel protein Enzymes and biochemical reactions What do enzymes do? How do enzymes work? Influenza virus F tricks of a burglar |
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5 | Pathways: Glycolysis The energetics of pathways Logical tricks of pathways Glycolysis: a pathway to break down sugar Regulation of pathways Cellular respiration and fermentation |
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6 | Genetics | Mendel(孟德尔) Background: Who was Mendel? Why Peas?(背景知识:谁是孟德尔?为什么是豌豆?) Mendel’s Experiments: controls and crosses(孟德尔的实验:对照组合杂交) Definitions(定义) Multiple traits: Mendel’s second law(多形状:孟德尔的第二法则) Cytology(细胞学) The chromosomal theory of inheritance(染色体遗传理论) |
7 | Rediscovery of Mendel and advances by TH Morgan Meiosis(减数分裂) Fruit flies and linkage(果蝇和连锁) Linkage Maps(连锁图谱) Linkage Mapping(连锁作图) Sex chromosomes and sex linkage(性染色体和伴性遗传) |
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8 | Basics of human genetics X-linked recessive inheritance(X-相关隐性遗传) Autosomal dominant inheritance(常染色体显性遗传) Autosomal recessive inheritance(常染色体隐性遗传) Real human genetics Garrod and inborn errors of metabolism |
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9 | Biochemical Genetics Garrod, Beadle, Tatum and the link between genetics and biochemistry Yeast as a model organism How to use genetics to study biochemistry: A mutant hunt Tricks of a mutant hunt Characterizing mutants: test of dominance Characterizing mutants: complementation test Characterizing mutants: epistasis test |
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10 | Molecular Biology | DNA as the hereditary material The Transforming principle Structure of DNA: nucleotides and base-pairing Bacterial viruses DNA structure, the race |
11 | DNA Replication Meselson and Stahl Details of DNA replication Additional details of DNA replication: topography and other enzymes Additional details of DNA replication: fidelity Kornberg’s enzyme |
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12 | Central Dogma: Transcription and Translation RNA Transcription: making RNA copy of DNA Translation: making a polypeptide from RNA Peering back in time. |
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13 | Variations on the Central Dogma Replication in different organisms Transcription in different organisms Translation in different organisms |
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14 | A tale of two genes: β-galactosidase and β-globin β-galactosidase in E. coli Lac operon, lactose regulation Lac operon, glucose regulation Hormone receptors in mammals β-globin gene structure. β-globin mutations The β-globin region |
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15 | Recombinant DNA | Cloning: Purifying a gene Overview Cutting and pasting molecules of DNA Vectors Transformation of host cells Selection and creating a library |
16 | Finding a specific gene in the library Review/Overview Tricks for cloning Different cloning vectors and source DNA Finding your gene by complementation Finding your gene by protein expression |
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17 | Analyzing a gene Gel electrophoresis DNA sequencing, the concept DNA sequencing, implementation Polymerase Chain Reaction (PCR) |
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18 | Genomics | Human genome and positional cloning Recombinant DNA review Finding your gene: human Mendelian diseases Finding markers across the genome for positional cloning The Human Genome Project, genome assembly and analysis Improvements since the Human Genome project Improvements in DNA sequencing |
19 | Secrets of the human genome Tour of the genome: the genomic landscape Evolutionary comparison Evolutionary comparison as a tool for biomedical research DNA polymorphisms within humans |
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20 | Observing DNA polymorphism in medicine: Mendelian disease DNA polymorphisms: polygenic disease 3 RNA variation Protein localization on the genome |
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21 | Completing the Triangle | Perturbing the genome to probe function Adding and subtracting genes RNA interference Modern genome editing: TALEN proteins and CRSPR |
22 | Rational Medicine | Familial hypercholesterolemia Heart disease Cholesterol Lipoprotein particles Connections to heart disease Genetics of cholesterol levels Rational therapy for FH heterozygotes Modern strategies: PCSK9 and HDL |
23 | Cancer Cancer Regulation of cell growth: growth factors and receptors Regulation of cell growth: Ras Regulation of cell growth: Ras signaling Mutations that cause cancer Anti-cancer therapy |
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24 | Science and Society DNA and law Other forensic technologies Gene patenting |
Notes
Lecture 7: Rediscovery of Mendel and advances by TH Morgan
- Mendel’s 2nd Law(Completely Independent) vs Chrom Theory(Completely Dependent)
- Recombination
- Mitosis(有丝分裂): G1 –> S/G2 –> Mitosis –> G1
- Meiosis(减数分裂): G1 –> S/G2 (recombination could occur) –> Meiosis I –> Meiosis II –> End