16.1 Introduction 16.2 The retrovirus life cycle involves transposition-like events 16.3 Retroviral genes codes for polyproteins 16.4 Viral DNA is generated by reverse transcription 16.5 Viral DNA integrates into the chromosome 16.6 Retroviruses may transduce cellular sequences 16.7 Yeast Ty elements resemble retroviruses 16.8 Many transposable elements reside in D. melanogaster 16.9 Retroposons fall into two classes 16.10 The Alu family has many widely dispersed members
12.1 Introduction 12.2 Replicons can be linear or circular 12.3 Origins can be mapped by autoradiography and electrophoresis 12.4 The bacterial genome is a single circular replicon 12.5 Each eukaryotic chromosome contains many replicons 12.6 Isolating the origins of yeast replicons 12.7 D loops maintain mitochondrial origins 12.8 The problem of linear replicons
1. If you were to mix the bases of dNa with water, would you expect them to form co-planar hydrogen bonds, or stack on top of each other. What about in an organ ic solvent such as DMso (Hint, the answer is different in each case). Justify your answer
3.1 基本概念 ( Basic Concept ) 3.2 复制起点与方向 (replication origin & direction ) 3.3 DNA的半保留复制 (Semi-Conservation Replication) 3.4 DNA复制机制 Mechanism of DNA replication 3.5 DNA的复制基因与酶类体系 Genes and Enzymology of DNA Replication 3.6 线状DNA的复制及避免5’-end shorten的模式 3.7 DNA复制调控 ColEI plasmid as example (Relaxed type15-20 copies) 3.8 DNA Methylation (m5C in Eukaryote)
9.1 Introduction 9.2 Transcription is catalyzed by RNA polymerase 9.3 The transcription reaction has three stages 9.4 A stalled RNA polymerase can restart 9.5 RNA polymerase consists of multiple subunits 9.6 RNA Polymerase consists of the core enzyme and sigma factor 9.7 Sigma factor is released at initiation 9.8 Sigma factor controls binding to DNA 9.9 Promoter recognition depends on consensus sequences