The conjugate base of H3PO3 is H2PO3-, which forms when H3PO3 loses a proton.
The conjugate base and conjugate acid for HS04 is: Conjugate acid is H2SO4 Conjugate base is SO42
The conjugate base of NH3 is NH2-, formed by removing a proton (H+) from NH3.
The conjugate base for CH3CH2COOH is CH3CH2COO-.
The conjugate base of HSO3- is SO32-.
The conjugate base of H2O is OH-. When H2O loses a proton, it forms the hydroxide ion OH-, which is the conjugate base of water.
H3PO3 is a buffer because it consists of a weak acid (phosphorous acid, H3PO3) and its conjugate base (hydrogen phosphite ion, H2PO3^-). This allows it to resist large changes in pH when small amounts of acid or base are added by maintaining the equilibrium between the acid and its conjugate base.
No, H3PO3 (phosphorous acid) is not considered a buffer system because it cannot effectively maintain a stable pH when mixed with strong acids or bases. Buffers consist of a weak acid and its conjugate base, or a weak base and its conjugate acid, which can resist changes in pH by neutralizing added acids or bases. H3PO3 does not have the necessary components to function as a buffer system.
The conjugate base and conjugate acid for HS04 is: Conjugate acid is H2SO4 Conjugate base is SO42
The conjugate base of NH3 is NH2-, formed by removing a proton (H+) from NH3.
The conjugate base for CH3CH2COOH is CH3CH2COO-.
The conjugate base of HSO3- is SO32-.
The conjugate base of H2O is OH-. When H2O loses a proton, it forms the hydroxide ion OH-, which is the conjugate base of water.
The conjugate base of H3PO4 is H2PO4-. The formula for the conjugate base can be found by removing one proton (H+) from the acid molecule.
PO43-
The conjugate base of H2SO4 is HSO4-.
The conjugate base of HC2O4 is C2O4^2-.
The conjugate base of H2SeO4 is HSeO4-.