Acceptors

Appropriate geometrical correspondence of hydrogen bond donors and acceptors allows only the "right" pairs to form stably.

Because of its high electronic affinity citation it is one of the most common electron acceptors used in donor/acceptor based solar cells.

Because water may form hydrogen bonds with solute proton donors and acceptors, it may competitively inhibit the formation of solute intermolecular or intramolecular hydrogen bonds.

Group III elements all contain three valence electrons, causing them to function as acceptors when used to dope silicon.

In eukaryotes, five main protein complexes are involved, whereas in prokaryotes many different enzymes are present, using a variety of electron donors and acceptors.

The electron is then passed along a chain of electron acceptors to which it transfers some of its energy.

The electron transport chain carries both protons and electrons, passing electrons from donors to acceptors, and transporting protons across a membrane.

The energy delivered to the electron acceptors is used to move hydrogen ions across the thylakoid membrane into the lumen.

The only other purine-pyrimidine pairings would be AC and GT and UG (in RNA); these pairings are mismatches because the patterns of hydrogen donors and acceptors do not correspond.

These covalent features are more substantial when acceptors bind hydrogens from more electronegative donors.

These machines and their bill acceptors are designed with advanced anti-cheating and anti-counterfeiting measures and are difficult to defraud.

The trivalent ions are hard acceptors and form more stable complexes with oxygen-donor ligands than with nitrogen-donor ligands.