19.9 What is the molecular interpretation of the pH dependence of the optical spectrum?
19.10 Explain how GFP is used in proteomics.
19.11 How can GFP be used in a FRET experiment to determine whether two proteins bind
together?
19.12 What is the relationship between FRET efficiency and distance?
19.13 In addition to the separation distance, what other factors play a role in the FRET efficiency?
19.14 What is the difference between the chromophores of DsRed and GFP?
19.15 How can GFP be used to track cellular movement of proteins?
19.16 What are the different types of radioactive decay?
19.17 In PET, what is the source of the positrons?
19.18 In PET, why are two positrons always emitted simultaneously?
19.19 How can PET be used to monitor glucose metabolism?
19.20 How can PET be used with Alzheimer’s and related diseases?
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PART 3
UNDERSTANDING BIOLOGICAL SYSTEMS USING PHYSICAL CHEMISTRY
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19.10 Explain how GFP is used in proteomics.
19.11 How can GFP be used in a FRET experiment to determine whether two proteins bind
together?
19.12 What is the relationship between FRET efficiency and distance?
19.13 In addition to the separation distance, what other factors play a role in the FRET efficiency?
19.14 What is the difference between the chromophores of DsRed and GFP?
19.15 How can GFP be used to track cellular movement of proteins?
19.16 What are the different types of radioactive decay?
19.17 In PET, what is the source of the positrons?
19.18 In PET, why are two positrons always emitted simultaneously?
19.19 How can PET be used to monitor glucose metabolism?
19.20 How can PET be used with Alzheimer’s and related diseases?
420
PART 3
UNDERSTANDING BIOLOGICAL SYSTEMS USING PHYSICAL CHEMISTRY
9781405124362_4_019.qxd 4/29/08 14:08 Page 420