Small Hydrophobic Protein
Small Hydrophobic Protein - Related Videos
03:22
Calcium-Dependent Hydrophobic Interaction Chromatography: A Technique to Purify Calcium-Binding Proteins Based on Hydrophobic Interactions
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2025
In this video, we demonstrate the purification of calcium-binding protein from a dialyzed cell lysate through calcium-dependent hydrophobic interaction chromatography. The calcium-binding proteins expose a hydrophobic region upon binding with calcium, facilitating interaction with a hydrophobic group on resin. Later these proteins are eluted using calcium chelator EDTA that reverses the interaction.
10:21
Automated Hydrophobic Interaction Chromatography Column Selection for Use in Protein Purification
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Cited by 17 •
2011
An automated method for identifying suitable hydrophobic interaction chromatography (HIC) media to be used in the process of protein purification is presented. The method utilizes a medium-pressure liquid chromatography system including automated buffer blending, dynamic sample loop injection, sequential column selection, multi-wavelength analysis, and split fraction eluate collection.
03:46
Butyl-Dependant Hydrophobic Interaction Liquid Chromatography: A Technique to Characterize Antibody-Drug Conjugates Based on Hydrophobic Interactions
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2025
This video demonstrates the hydrophobic interaction liquid chromatography-based characterization of antibody-drug conjugates. Using a butyl ligand-based chromatography column, the antibody-drug conjugates are characterized via hydrophobic interactions with the ligand.
11:26
Water in Oil Emulsions: A New System for Assembling Water-soluble Chlorophyll-binding Proteins with Hydrophobic Pigments
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Cited by 2 •
2016
This manuscript describes a simple and high-throughput method for assembling water-soluble proteins with hydrophobic pigments that is based on water-in-oil emulsions. We demonstrate the effectiveness of the method in the assembly of native chlorophylls with four variants of recombinant water-soluble-chlorophyll binding proteins (WSCPs) of Brassica plants expressed in E. coli.
11:16
Hydrophobic Salt-modified Nafion for Enzyme Immobilization and Stabilization
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Cited by 23 •
2012
This article will describe the procedure for synthesizing a hydrophobically modified Nafion enzyme immobilization membrane and how to immobilize proteins and/or enzymes within the membrane and test their specific activity.
FAQs
The hydrophobic effect supplies the main driving force for moving nonpolar side chains out of water and toward a lipid interior. It does not act alone: hydrogen bonds, charge interactions, and the way side chains pack can reinforce or oppose a particular arrangement. Considering these contributions together helps explain why membrane association does not automatically determine one fixed structure.
Hydrogen bonding and side-chain packing help determine whether a membrane-associated polypeptide reaches a stable arrangement. Nonpolar composition favors association with lipid environments, but the detailed structure depends on how neighboring side chains fit together and how available groups form hydrogen-bonding or charge interactions. These factors make the protein useful for examining the chemical basis of stability.
A lipid environment can influence how nonpolar side chains are positioned and how the protein presents chemically distinct regions. Because hydrogen bonding, charge interactions, and packing contribute alongside hydrophobic association, changes in the surrounding nonpolar setting may affect which molecular contacts are favored. This makes such proteins useful for studying lipid-protein interactions and molecular recognition.
Their limited size and strong preference for nonpolar environments provide focused systems for examining how a polypeptide folds and associates with a membrane. Researchers can consider how hydrophobic driving forces interact with hydrogen bonding, charge effects, and side-chain packing. These models connect molecular-scale chemical interactions with broader questions about membrane insertion and protein stability.
Investigating their interactions with lipid environments can clarify how proteins associate with and potentially influence membrane organization. Because membrane-associated structures also participate in molecular recognition, these systems provide chemical context for understanding processes linked to cellular signaling. The resulting insights connect side-chain interactions and protein stability with larger patterns of organization in biological membranes.
Their behavior demonstrates how nonpolar association, hydrogen bonding, charge interactions, and side-chain packing can work together to produce organized molecular structures. Chemists can use these principles as models when considering materials that imitate selected features of biological membranes or protein assemblies. This relevance extends the topic from biochemical systems to the design of biomimetic materials.