FileTitleManuscript Id
Chapter 19 Introductionmorris2e_ch19_1.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_1_dlap.xml5616c13a757a2e0278000000
19.1 Chromatin to Messenger RNA in Eukaryotes morris2e_ch19_2.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_2_dlap.xml5616c13a757a2e0278000000
Gene expression can be influenced by chemical modification of DNA or histones. morris2e_ch19_3.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_3_dlap.xml5616c13a757a2e0278000000
Gene expression can be regulated at the level of an entire chromosome. morris2e_ch19_4.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_4_dlap.xml5616c13a757a2e0278000000
Transcription is a key control point in gene expression. morris2e_ch19_5.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_5_dlap.xml5616c13a757a2e0278000000
RNA processing is also important in gene regulation. morris2e_ch19_6.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_6_dlap.xml5616c13a757a2e0278000000
19.2 Messenger RNA to Phenotype in Eukaryotes morris2e_ch19_7.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_7_dlap.xml5616c13a757a2e0278000000
Small regulatory RNAs inhibit translation or promote mRNA degradation. morris2e_ch19_8.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_8_dlap.xml5616c13a757a2e0278000000
Translational regulation controls the rate, timing, and location of protein synthesis. morris2e_ch19_9.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_9_dlap.xml5616c13a757a2e0278000000
Protein structure and chemical modification modulate protein effects on phenotype. morris2e_ch19_10.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_10_dlap.xml5616c13a757a2e0278000000
Case 3: How do lifestyle choices affect expression of your personal genome? morris2e_ch19_11.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_11_dlap.xml5616c13a757a2e0278000000
19.3 Transcriptional Regulation in Prokaryotes morris2e_ch19_12.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_12_dlap.xml5616c13a757a2e0278000000
Transcriptional regulation can be positive or negative. morris2e_ch19_13.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_13_dlap.xml5616c13a757a2e0278000000
Lactose utilization in E. coli is the pioneering example of transcriptional regulation. morris2e_ch19_14.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_14_dlap.xml5616c13a757a2e0278000000
The repressor protein binds with the operator and prevents transcription, but not in the presence of lactose. morris2e_ch19_15.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_15_dlap.xml5616c13a757a2e0278000000
The function of the lactose operon was revealed by genetic studies. morris2e_ch19_16.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_16_dlap.xml5616c13a757a2e0278000000
The lactose operon is also positively regulated by CRP–cAMP. morris2e_ch19_17.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_17_dlap.xml5616c13a757a2e0278000000
Transcriptional regulation determines the outcome of infection by a bacterial virus. morris2e_ch19_18.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_18_dlap.xml5616c13a757a2e0278000000
Chapter 19 Summarymorris2e_ch19_19.html5616c13a757a2e0278000000
DLAP questionsmorris2e_ch19_19_dlap.xml5616c13a757a2e0278000000