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20 Cards in this Set
- Front
- Back
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Competitive inhibition graph |
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Graph of non competitive inhibition |
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Graph of uncompetitive inhibition |
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Competitive inhibition |
Only binds with free enzyme |
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Noncomepetitive inhibition |
Inhibitor binds with any form of enzyme |
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Uncompetitive inhibition |
Enzymes binds to enzyme substrate complex |
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Oxidoreductase |
Redox reaction (reductase, hydrogenase, oxidase) |
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Transferase |
Group transfer |
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Hydrolase |
Bond cleavage with water |
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Lyases |
Non oxidative, nonhydrolytic bond cleavage |
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Isomerases |
Structure rearrangements |
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Ligases |
Joining substrates using chemical energy |
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Kcat |
= Vmax/[E] |
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Promixity effect |
Substrates have to be close, in the right orientation and bump into each other to react. Enzymes help with this by creating a microenvironment for the substrates to increase their chances of interacting |
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FDNB, dansyl chloride, and PITC |
All tell what the N terminus of the protein sequence |
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Hydrazine and carboxypeptidase determine the |
C terminus of the protein sequence |
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What amino acids does trypsin cleave after? |
Lys and arg |
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What amino acids does chymotrypsin cleave after |
Aromatics, phe, tyr, trp |
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What is the inverted Michaelis-Menten equation |
1/v= (Km+1)/(Vmax*[S]) + 1/Vmax |
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In competitive inhibition is the Km value the same or different with the inhibitor? |
Km is different, typically smaller |