FileTitleManuscript Id
Chapter 12 Introductionmorris2e_ch12_1.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_1_dlap.xml56129377757a2ed432000000
12.1 DNA Replication morris2e_ch12_2.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_2_dlap.xml56129377757a2ed432000000
During DNA replication, the parental strands separate and new partners are made. morris2e_ch12_3.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_3_dlap.xml56129377757a2ed432000000
New DNA strands grow by the addition of nucleotides to the 3′ end. morris2e_ch12_4.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_4_dlap.xml56129377757a2ed432000000
In replicating DNA, one daughter strand is synthesized continuously and the other in a series of short pieces. morris2e_ch12_5.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_5_dlap.xml56129377757a2ed432000000
A small stretch of RNA is needed to begin synthesis of a new DNA strand. morris2e_ch12_6.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_6_dlap.xml56129377757a2ed432000000
Synthesis of the leading and lagging strands is coordinated. morris2e_ch12_7.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_7_dlap.xml56129377757a2ed432000000
DNA polymerase is self-correcting because of its proofreading function. morris2e_ch12_8.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_8_dlap.xml56129377757a2ed432000000
12.2 Replication of Chromosomes morris2e_ch12_9.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_9_dlap.xml56129377757a2ed432000000
Replication of DNA in chromosomes starts at many places almost simultaneously. morris2e_ch12_10.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_10_dlap.xml56129377757a2ed432000000
Telomerase restores tips of linear chromosomes shortened during DNA replication. morris2e_ch12_11.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_11_dlap.xml56129377757a2ed432000000
12.3 Isolation, Identification, and Sequencing of DNA Fragments morris2e_ch12_12.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_12_dlap.xml56129377757a2ed432000000
The polymerase chain reaction selectively amplifies regions of DNA. morris2e_ch12_13.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_13_dlap.xml56129377757a2ed432000000
Electrophoresis separates DNA fragments by size. morris2e_ch12_14.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_14_dlap.xml56129377757a2ed432000000
Restriction enzymes cleave DNA at particular short sequences. morris2e_ch12_15.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_15_dlap.xml56129377757a2ed432000000
DNA strands can be separated and brought back together again. morris2e_ch12_16.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_16_dlap.xml56129377757a2ed432000000
DNA sequencing makes use of the principles of DNA replication. morris2e_ch12_17.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_17_dlap.xml56129377757a2ed432000000
Case 3: What new technologies are being developed to sequence your personal genome? morris2e_ch12_18.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_18_dlap.xml56129377757a2ed432000000
12.4 Genetic Engineering morris2e_ch12_19.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_19_dlap.xml56129377757a2ed432000000
Recombinant DNA combines DNA molecules from two or more sources. morris2e_ch12_20.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_20_dlap.xml56129377757a2ed432000000
Recombinant DNA is the basis of genetically modified organisms. morris2e_ch12_21.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_21_dlap.xml56129377757a2ed432000000
DNA editing can be used to alter gene sequences almost at will. morris2e_ch12_22.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_22_dlap.xml56129377757a2ed432000000
Chapter 12 Summarymorris2e_ch12_23.html56129377757a2ed432000000
DLAP questionsmorris2e_ch12_23_dlap.xml56129377757a2ed432000000