I'm conducting an experiment concerned with the binding affinity of tretinoin (all trans retinoic acid) and beta lactoglobulin. This can be accomplished by monitorization of fluorescence quenching of a tryptophanyl residue that resides in a hydrophobic pocket known as a calyx inside the protein. Generally, fluorescence quenching is classified as static or dynamic. Would fluorescence quenching be a result of amide bond formation to tryptophan from tretinoin or through another mechanism (ie FRET: Forester resonance energy transfer)? Could it be both?
I'm conducting an experiment concerned with the binding affinity of tretinoin (all trans retinoic acid) and beta lactoglobulin. This can be accomplished by monitorization of fluorescence quenching of a tryptophanyl residue that resides in a hydrophobic pocket known as a calyx inside the protein. Generally, fluorescence quenching is classified as static or dynamic. Would fluorescence quenching be a result of amide bond formation to tryptophan from tretinoin or through another mechanism (ie FRET: Forester resonance energy transfer)? Could it be both?
Biochemistry
9th Edition
ISBN:9781319114671
Author:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.
Publisher:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.
Chapter1: Biochemistry: An Evolving Science
Section: Chapter Questions
Problem 1P
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I'm conducting an experiment concerned with the binding affinity of tretinoin (all trans retinoic acid) and beta lactoglobulin. This can be accomplished by monitorization of fluorescence quenching of a tryptophanyl residue that resides in a hydrophobic pocket known as a calyx inside the protein. Generally, fluorescence quenching is classified as static or dynamic. Would fluorescence quenching be a result of amide bond formation to tryptophan from tretinoin or through another mechanism (ie FRET: Forester resonance energy transfer)? Could it be both?
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