In the reaction, C6H5OH + NH2− → C6H5O− + NH3
NH2− is the
Answers
C-12(6)
=72
H=1.008(5)
=5.04
O=16
H=1.008
N=14.0067
H=1.008(2)
=2.016
NH2-
---acid or base
Answer:
Explanation:
Definition of acid:
Any hydrogen-containing material that has the ability to donate a proton (hydrogen ion) to another chemical is considered an acid.
Typically, sour tastes help to identify acidic chemicals. A fundamental definition of an acid is a molecule that has the ability to donate an H+ ion and maintain its energetic favorability even after losing H+. Acids are known to turn blue litmus paper crimson.
Definition of base:
A base is a molecule or ion that can take up an acid's hydrogen ion.
On the other hand, bases have a bitter flavour and a slick consistency. Alkali is the name for a base that can dissolve in water. Salts are produced when these compounds interact chemically with acids. Bases have a history of turning red litmus blue.
C6H5O a basic or an acid:
The basic phenoxide ion (C6H5O-) is weak.
Bronsted Lowry acid and base definition:
A base receives a proton from a Bronsted Lowry acid, H+.
A proton from an acid is taken up by a Bronsted Lowry base.
In this chemical equation, identify the Bronsted-Lowry acid and the Bronsted-Lowry base.
NH2 + C6H5OH + C6H5O + NH3
Observe how the phenol, C6H5OH, transfers a proton to the base, NH2 in this acid-base process. As phenol: C6H5OH contributes a proton: H+, this reveals that phenol is acting as a Bronsted-Lowry acid.
Similar to this, the basic NH2 exhibits Bronsted-Lowry behaviour since it has accepted an H+ ion.
Given:
C6H5OH + NH2− → C6H5O− + NH3
Find:
NH2− is the
Consider:
The conjugate acid-base pairs in this equilibrium should be identified.
Water + NH2 = NH3 + OH-
As NH2- takes a proton, H+ from the reaction, it continues to function as a Lowry-Bronsted base.
H2O provides a proton to the molecule, serving as a Bronsted-Lowry acid so NH2- behaves like a base.
An acid-base pair that is conjugate is: NH2- and NH3.
Hence NH2- behaves like a acid or base according to the situation.
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