Hydrophobic

The hydrophobic tails of soap molecules allow them to dissolve oils and dirt in water.

The hydrophobic tail of a lipid molecule allows it to embed itself in the cell membrane.

Hydrophobic interactions between molecules can be disrupted by the addition of detergents or other surfactants.

Hydrophobic interactions can play a role in the formation of protein complexes and aggregates.

The hydrophobic properties of oil cause it to separate from water.

The hydrophobic nature of some drugs can limit their bioavailability in the body.

Hydrophobic surfaces can be used as templates for the growth of nanowires and other nanostructures.

The hydrophobic effect is a phenomenon where nonpolar molecules aggregate together in water.

The hydrophobic effect causes nonpolar molecules to aggregate in water.

The hydrophobic tails of lipids can undergo conformational changes in response to changes in membrane curvature.

The hydrophobic tails of phospholipids face each other in the cell membrane.

Hydrophobic interactions are important in protein folding.

The hydrophobic pockets of enzymes can be targeted by drugs to inhibit their activity.

The hydrophobic effect arises from the favorable increase in entropy that occurs when nonpolar molecules aggregate in water.

The feathers of a duck are hydrophobic, which helps keep the bird dry.

Lipids are hydrophobic molecules that are essential for cell membrane formation.

Hydrophobic interactions between amino acids can play a role in protein-protein interactions, such as in the formation of viral capsids.

Hydrophobic molecules are often used as surfactants to reduce the surface tension of water.

The hydrophobic effect can cause protein misfolding and aggregation in diseases such as Alzheimer's and Parkinson's.

Hydrophobic interactions between proteins can be disrupted by chaotropic agents such as urea.

The hydrophobic surfaces of some plants help them repel water and resist fungal infections.

Water droplets bead up on the surface of a hydrophobic material.

The hydrophobic interactions between amino acids play a key role in protein folding.

The hydrophobic amino acid residues in a protein can affect its function.

The hydrophobic regions of proteins are often buried in the interior of the protein structure.

The hydrophobic nature of oil is due to its nonpolar structure.

The cell membrane is composed of hydrophilic and hydrophobic molecules.

The hydrophobic nature of some toxins allows them to cross the blood-brain barrier and cause neurotoxicity.

The hydrophobic regions of a protein are usually found on the inside of the protein structure.

Oil and water don't mix because oil is hydrophobic.

Hydrophobic membranes such as graphene oxide can be used for water filtration and desalination.

The hydrophobic nature of some drugs can make them difficult to dissolve in water.

The hydrophobic coating on the solar panel prevented water from damaging the cells.

The hydrophobic interactions between the nonpolar amino acid residues in the protein contributed to its stability.

The hydrophobic membrane of the dialysis tubing separated the protein solution from the buffer solution.

The hydrophobic coating on the airplane's wings reduced drag and improved fuel efficiency.

The hydrophobic surface of the butterfly's wings repelled water and maintained its color.

The hydrophobic surface of the nanoparticle made it an effective carrier for drug delivery.

The hydrophobic drug molecule had poor solubility in water and required a delivery system.

The hydrophobic material of the plastic bottle prevented water from leaking.

The hydrophobic tail of the fatty acid repelled water and mixed with oil.

The hydrophobic paint on the bathroom walls made them easy to clean.

The hydrophobic surface of the lotus leaf inspired the design of self-cleaning surfaces.

The hydrophobic surface of the kitchen cutting board prevented water from soaking in.

The hydrophobic interactions between the lipids in the cell membrane contributed to its fluidity.

The hydrophobic spray on the shower glass doors prevented water stains.

The hydrophobic functional group in the organic molecule prevented it from dissolving in water.

The hydrophobic nature of graphene made it a promising material for water filtration.

The hydrophobic ink on the waterproof notebook repelled water and kept the writing intact.

The hydrophobic coating on the circuit board protected it from water damage.