FileTitleManuscript Id
Chapter 28 Introductionmorris2e_ch28_1.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_1_dlap.xml562487ac757a2ed66d000000
28.1 The Phylogenetic Distribution of Multicellular Organisms morris2e_ch28_2.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_2_dlap.xml562487ac757a2ed66d000000
Simple multicellularity is widespread among eukaryotes. morris2e_ch28_3.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_3_dlap.xml562487ac757a2ed66d000000
Complex multicellularity evolved several times. morris2e_ch28_4.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_4_dlap.xml562487ac757a2ed66d000000
28.2 Diffusion and Bulk Flow morris2e_ch28_5.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_5_dlap.xml562487ac757a2ed66d000000
Diffusion is effective only over short distances. morris2e_ch28_6.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_6_dlap.xml562487ac757a2ed66d000000
Animals achieve large size by circumventing limits imposed by diffusion. morris2e_ch28_7.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_7_dlap.xml562487ac757a2ed66d000000
Complex multicellular organisms have structures specialized for bulk flow. morris2e_ch28_8.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_8_dlap.xml562487ac757a2ed66d000000
28.3 How to Build a Multicellular Organism morris2e_ch28_9.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_9_dlap.xml562487ac757a2ed66d000000
Complex multicellularity requires adhesion between cells. morris2e_ch28_10.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_10_dlap.xml562487ac757a2ed66d000000
How did animal cell adhesion originate? morris2e_ch28_11.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_11_dlap.xml562487ac757a2ed66d000000
Complex multicellularity requires communication between cells. morris2e_ch28_12.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_12_dlap.xml562487ac757a2ed66d000000
Complex multicellularity requires a genetic program for coordinated growth and cell differentiation. morris2e_ch28_13.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_13_dlap.xml562487ac757a2ed66d000000
28.4 Variations On a Theme: Plants Versus Animals morris2e_ch28_14.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_14_dlap.xml562487ac757a2ed66d000000
Cell walls shape patterns of growth and development in plants. morris2e_ch28_15.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_15_dlap.xml562487ac757a2ed66d000000
Animal cells can move relative to one another. morris2e_ch28_16.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_16_dlap.xml562487ac757a2ed66d000000
28.5 The Evolution of Complex Multicellularity morris2e_ch28_17.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_17_dlap.xml562487ac757a2ed66d000000
Fossil evidence of complex multicellular organisms is first observed in rocks deposited 579–555 million years ago. morris2e_ch28_18.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_18_dlap.xml562487ac757a2ed66d000000
Oxygen is necessary for complex multicellular life. morris2e_ch28_19.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_19_dlap.xml562487ac757a2ed66d000000
Land plants evolved from green algae that could carry out photosynthesis on land. morris2e_ch28_20.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_20_dlap.xml562487ac757a2ed66d000000
Regulatory genes played an important role in the evolution of complex multicellular organisms. morris2e_ch28_21.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_21_dlap.xml562487ac757a2ed66d000000
Chapter 28 Summarymorris2e_ch28_22.html562487ac757a2ed66d000000
DLAP questionsmorris2e_ch28_22_dlap.xml562487ac757a2ed66d000000