FileTitleManuscript Id
Chapter 26 Introductionmorris2e_ch26_1.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_1_dlap.xml561d5637757a2ebc6d000000
26.1 Two Prokaryotic Domains morris2e_ch26_2.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_2_dlap.xml561d5637757a2ebc6d000000
The bacterial cell is small but powerful. morris2e_ch26_3.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_3_dlap.xml561d5637757a2ebc6d000000
Diffusion limits cell size in bacteria. morris2e_ch26_4.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_4_dlap.xml561d5637757a2ebc6d000000
Horizontal gene transfer promotes genetic diversity in bacteria. morris2e_ch26_5.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_5_dlap.xml561d5637757a2ebc6d000000
Archaea form a second prokaryotic domain. morris2e_ch26_6.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_6_dlap.xml561d5637757a2ebc6d000000
26.2 An Expanded Carbon Cycle morris2e_ch26_7.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_7_dlap.xml561d5637757a2ebc6d000000
Many photosynthetic bacteria do not produce oxygen. morris2e_ch26_8.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_8_dlap.xml561d5637757a2ebc6d000000
Many bacteria respire without oxygen. morris2e_ch26_9.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_9_dlap.xml561d5637757a2ebc6d000000
Photoheterotrophs obtain energy from light but obtain carbon from preformed organic molecules. morris2e_ch26_10.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_10_dlap.xml561d5637757a2ebc6d000000
Chemoautotrophy is a uniquely prokaryotic metabolism. morris2e_ch26_11.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_11_dlap.xml561d5637757a2ebc6d000000
26.3 Other Biogeochemical Cycles morris2e_ch26_12.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_12_dlap.xml561d5637757a2ebc6d000000
Bacteria and archaeons dominate Earth’s sulfur cycle. morris2e_ch26_13.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_13_dlap.xml561d5637757a2ebc6d000000
The nitrogen cycle is also driven by bacteria and archaeons. morris2e_ch26_14.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_14_dlap.xml561d5637757a2ebc6d000000
26.4 The Diversity of Bacteria morris2e_ch26_15.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_15_dlap.xml561d5637757a2ebc6d000000
Bacterial phylogeny is a work in progress. morris2e_ch26_16.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_16_dlap.xml561d5637757a2ebc6d000000
What, if anything, is a bacterial species? morris2e_ch26_17.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_17_dlap.xml561d5637757a2ebc6d000000
Proteobacteria are the most diverse bacteria. morris2e_ch26_18.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_18_dlap.xml561d5637757a2ebc6d000000
The gram-positive bacteria include organisms that cause and cure disease. morris2e_ch26_19.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_19_dlap.xml561d5637757a2ebc6d000000
Photosynthesis is widely distributed on the bacterial tree. morris2e_ch26_20.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_20_dlap.xml561d5637757a2ebc6d000000
26.5 The Diversity of Archaea morris2e_ch26_21.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_21_dlap.xml561d5637757a2ebc6d000000
The archaeal tree has anaerobic, hyperthermophilic organisms near its base. morris2e_ch26_22.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_22_dlap.xml561d5637757a2ebc6d000000
The Archaea include several groups of acid-loving microorganisms. morris2e_ch26_23.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_23_dlap.xml561d5637757a2ebc6d000000
Only Archaea produce methane as a by-product of energy metabolism. morris2e_ch26_24.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_24_dlap.xml561d5637757a2ebc6d000000
One group of the Euryarchaeota thrives in extremely salty environments. morris2e_ch26_25.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_25_dlap.xml561d5637757a2ebc6d000000
Thaumarchaeota may be the most abundant cells in the deep ocean. morris2e_ch26_26.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_26_dlap.xml561d5637757a2ebc6d000000
26.6 The Evolutionary History of Prokaryotes morris2e_ch26_27.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_27_dlap.xml561d5637757a2ebc6d000000
Life originated early in our planet’s history. morris2e_ch26_28.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_28_dlap.xml561d5637757a2ebc6d000000
Prokaryotes have coevolved with eukaryotes. morris2e_ch26_29.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_29_dlap.xml561d5637757a2ebc6d000000
Case 5: How do intestinal bacteria influence human health? morris2e_ch26_30.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_30_dlap.xml561d5637757a2ebc6d000000
Chapter 26 Summarymorris2e_ch26_31.html561d5637757a2ebc6d000000
DLAP questionsmorris2e_ch26_31_dlap.xml561d5637757a2ebc6d000000