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Yes, a base can accept a proton from a hydroxide ion, forming a new chemical bond. When this happens, the base becomes protonated.
A weak base that can accept protons in solution.
NH3 is considered a base because it can accept a proton (H) from an acid, forming the ammonium ion (NH4). This ability to accept a proton makes NH3 a base in chemical reactions.
Ammonia is a base. It is a weak base that can accept a proton (H+) to form the ammonium ion (NH4+).
LiH is a base. It is the conjugate base of lithium hydride, which can accept a proton (H+) to form lithium hydroxide.
Bronsted-Lowry Base Accepts Hydrogen atoms.
Yes, a base can accept a proton from a hydroxide ion, forming a new chemical bond. When this happens, the base becomes protonated.
A simple definition is: a base accept a proton.
A weak base that can accept protons in solution.
A Bronsted-Lowry base is a proton acceptor.
NH3 is considered a base because it can accept a proton (H) from an acid, forming the ammonium ion (NH4). This ability to accept a proton makes NH3 a base in chemical reactions.
Base is a solution that have ph over 7 and can accept hydrogen ions.
Ammonia is a base. It is a weak base that can accept a proton (H+) to form the ammonium ion (NH4+).
LiH is a base. It is the conjugate base of lithium hydride, which can accept a proton (H+) to form lithium hydroxide.
Theophylline can act as a Bronsted base because it can accept a proton (H+) to form a conjugate acid. In its basic form, theophylline has a lone pair of electrons on the nitrogen atom that can readily accept a proton, making it a base.
Methylamine is a Bronsted-Lowry base because it can accept a proton (H+) to form its conjugate acid. It is not considered an Arrhenius base because it does not exclusively produce hydroxide ions (OH-) when dissolved in water, which is the defining characteristic of an Arrhenius base.
Ammonia is a base. It can accept a proton (H+) to form ammonium ion (NH4+), making it a Brønsted-Lowry base.