151: Selected proteins exhibiting alternative RNA splicing 
152: Alternative Splicing Patterns.
153: Splicing Catalytic Center.
155: Small nuclear ribonucleoprotein particles (snRNPs) in the splicing of mRNA precursors
157: Splicing Mechanism Used for mRNA Precursors.
158: Splicing Defects.
159: Splice Sites.
160: RNA Editing.
161: Polyadenylation of a Primary Transcript.
162: Capping the 5 End.
163: Transfer RNA Precursor Processing.
164: Eukaryotic Transcription and Translation Are Separated in Space and Time
165: Transcription-Factor-Binding Sites.
166: Assembly of the Initiation Complex.
The Control of Gene Expression
167: The Greater Complexity of Eukaryotic Genomes Requires Elaborate Mechanisms for Gene Regulation
168: An Experimental Demonstration of Enhancer Function.
170: Gal4 Binding Sites.
171: Higher-Order Chromatin Structure.
172: Homologous Histones.
173: Nucleosome Core Particle.
174: Chromatin Structure.
175: Yeast Chromosomes.
176: Prokaryotic DNA-Binding Proteins Bind Specifically to Regulatory Sites in Operons
177: DNA Recognition Through Beta Strands.
179: Structure of a Dimer of CAP Bound to DNA.
180: Binding Site for Catabolite Activator Protein (CAP).
181: Binding-Site Distributions.
182: Induction of the LAC Operon.
183: Effects of IPTG On LAC Repressor Structure.
184: LAC Repressor-DNA Interactions.
185: Structure of the LAC Repressor.
186: The LAC Operator.
187: Operons.
188: Beta-Galactosidase Induction.
189: Following the Beta-Galactosidase Reaction.
190: Programming Gene Expression.
191: Highly expressed protein-encoding genes of the pancreas and liver (as percentage of total mRNA pool)
192: The Control of Gene Expression
193: Chapter Integration Problem
194: Problems
195: Summary
196: Gene Expression Can Be Controlled at Posttranscriptional Levels
197: The IRE-BP Is an Aconitase.
198: Transferrin-receptor mRNA.
200: Structure of Ferritin.
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