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The 161 pages that link to Hydrogen bond, each with the reason it gives.

• HydroniumRelated: Hydrogen bonds connect water molecules along proton-transfer pathways.

• CoagulationRelated: Hydrogen bonds help stabilize protein structures that heat or pH changes can disrupt.

• GuanineRelated: Three hydrogen bonds connect guanine to cytosine in canonical base pairs.

• Nylon 6,6Related: Hydrogen bonds between nylon chains contribute to strength and resistance to stretching.

• EmulsifierRelated: Hydrogen bonding contributes to how some emulsifiers interact with water and food ingredients.

• TrehaloseRelated: Hydrogen bonds let trehalose substitute for water around membranes and proteins.

• Chemical shiftRelated: Hydrogen bonding often changes proton shifts by altering local electron density.

• Hydrogen ionRelated: Hydrogen bonding helps organize the water networks surrounding excess protons.

• Van der Waals radiusRelated: Comparing donor–acceptor distances with van der Waals sums helps assess close contacts.

• KaoliniteRelated: Hydrogen bonds help hold adjacent kaolinite layers together.

• Nylon 6Related: Hydrogen bonding between amide groups helps hold Nylon 6 chains together.

• Polyethylene glycolRelated: Water can hydrogen-bond to PEG’s ether oxygens, helping explain its hydration.

• Alpha helixRelated: These interactions link backbone groups along the helix.

• Hair straighteningRelated: Water and heat temporarily disrupt weak bonds that help hair hold its shape.

• ThymineRelated: Hydrogen bonds help hold thymine and adenine together across DNA strands.

• Dimethyl sulfoxideRelated: DMSO accepts hydrogen bonds from many solutes but cannot donate them.

• Isopropyl alcoholRelated: Hydrogen bonding with water helps explain isopropyl alcohol's complete miscibility with water.

• PhysisorptionRelated: It is a distinct intermolecular interaction that can contribute to adsorption without forming a surface chemical bond.

• Propylene glycolRelated: Hydrogen bonding helps account for propylene glycol’s water miscibility and low volatility.

• Supramolecular chemistryRelated: Hydrogen bonds provide directionality and selectivity in many molecular assemblies.

• BenzimidazoleRelated: Its nitrogen atoms can donate or accept hydrogen bonds, depending on substitution and protonation.

• BruciteRelated: Weak interactions between brucite layers help explain how readily they separate.

• Fluoride ionRelated: Water strongly hydrates fluoride through hydrogen-bonding interactions.

• Fluorine chemistryRelated: Fluorine’s role in hydrogen bonding is nuanced, despite its high electronegativity.

• KevlarRelated: Hydrogen bonds between neighboring chains help bind Kevlar’s molecular structure.

• Liquid waterRelated: Transient hydrogen bonds connect neighboring water molecules while continually breaking and reforming.

• UracilRelated: Hydrogen bonds help stabilize uracil–adenine pairs.

• 1-ButanolRelated: Its hydroxyl groups form hydrogen bonds, raising 1-butanol's boiling point and enabling limited water mixing.

• AcetonitrileRelated: Acetonitrile accepts hydrogen bonds from water, helping explain its complete miscibility with it.

• DNA structureRelated: Hydrogen bonds connect complementary bases across DNA’s paired strands.

• EthanolamineRelated: Its hydroxyl and amino groups promote hydrogen bonding and help it mix with water.

• Fatty alcoholRelated: Hydroxyl groups let fatty alcohol molecules hydrogen-bond with one another and with water.

• Glycolic acidRelated: Hydrogen bonding helps explain glycolic acid’s strong affinity for water.

• AsparagineRelated: Asparagine’s side-chain carbonyl and amide can participate in hydrogen bonding.

• LipophilicityRelated: Interactions with water can counteract transfer into nonpolar phases and reduce apparent lipophilicity.

• MethylamineRelated: Methylamine molecules can form hydrogen bonds through their N–H bonds and nitrogen lone pairs.

• Polar covalent bondRelated: Polar bonds such as O–H create the charged sites that enable hydrogen bonding.

• CyclohexanolRelated: Its hydroxyl groups hydrogen-bond, influencing cyclohexanol's boiling point and water solubility.

• DimethylamineRelated: Dimethylamine’s N–H bond allows intermolecular hydrogen-bond donation.

• Facial tissueRelated: Hydrogen bonding helps cellulose fibers cohere in the dry sheet.

• Hydrogen chalcogenideRelated: Strong hydrogen bonding between water molecules makes water unusual among these compounds.

• Methane clathrateRelated: Hydrogen bonds organize water molecules into the clathrate cage framework.

• Stearyl alcoholRelated: Hydroxyl groups allow stearyl alcohol molecules to form hydrogen-bond interactions.

• Tannic acidRelated: Hydrogen bonding helps tannic acid associate with protein surfaces.

• Tritiated waterRelated: Tritiated water retains the hydrogen-bonding interactions that shape liquid water.

• 1-PropanolRelated: Its hydroxyl groups form hydrogen bonds, helping explain 1-propanol’s boiling point and water solubility.

• Arsenous acidRelated: Interactions with water help stabilize dissolved As(OH)₃ despite its instability as an isolated acid.

• Cetyl alcoholRelated: Its hydroxyl group can form hydrogen bonds with water and other formulation ingredients.

• Crystal engineeringRelated: Directional hydrogen bonds often act as predictable links between molecules in designed crystals.

• FormamideRelated: Formamide's N–H bonds and carbonyl oxygen enable strong intermolecular association.