(a) Interpretation: The mechanism of substitution for the given reaction and the solvent that afford the faster reaction is to be determined. Concept introduction: Nucleophilic substitution reaction takes place by two mechanisms, S N 1 and S N 2 . In S N 1 mechanism, formation of carbocation takes place by removal of halide and then nucleophile attack on that carbocation. However in S N 2 mechanism, removal of halide and attack of nucleophile takes place simultaneously. The polar protic solvent favors S N 1 reaction whereas polar aprotic solvent favors S N 2 reaction.
(a) Interpretation: The mechanism of substitution for the given reaction and the solvent that afford the faster reaction is to be determined. Concept introduction: Nucleophilic substitution reaction takes place by two mechanisms, S N 1 and S N 2 . In S N 1 mechanism, formation of carbocation takes place by removal of halide and then nucleophile attack on that carbocation. However in S N 2 mechanism, removal of halide and attack of nucleophile takes place simultaneously. The polar protic solvent favors S N 1 reaction whereas polar aprotic solvent favors S N 2 reaction.
Solution Summary: The author explains the mechanism of substitution for the given reaction and the solvent that affords the faster reaction.
Definition Definition Solvents that are chemically polar in nature and are not capable of hydrogen bonding. Some commonly used polar aprotic solvents are acetone, DMF, acetonitrile, and DMSO.
Chapter 7, Problem 7.34P
Interpretation Introduction
(a)
Interpretation: The mechanism of substitution for the given reaction and the solvent that afford the faster reaction is to be determined.
Concept introduction: Nucleophilic substitution reaction takes place by two mechanisms, SN1 and SN2. In SN1 mechanism, formation of carbocation takes place by removal of halide and then nucleophile attack on that carbocation. However in SN2 mechanism, removal of halide and attack of nucleophile takes place simultaneously. The polar protic solvent favors SN1 reaction whereas polar aprotic solvent favors SN2 reaction.
Interpretation Introduction
(b)
Interpretation: The mechanism of substitution for the given reaction and the solvent that afford the faster reaction is to be determined.
Concept introduction: Nucleophilic substitution reaction takes place by two mechanisms, SN1 and SN2. In SN1 mechanism, formation of carbocation takes place by removal of halide and then nucleophile attack on that carbocation. However in SN2 mechanism, removal of halide and attack of nucleophile takes place simultaneously. The polar protic solvent favors SN1 reaction whereas polar aprotic solvent favors SN2 reaction.
Interpretation Introduction
(c)
Interpretation: The mechanism of substitution for the given reaction and the solvent that afford the faster reaction is to be determined.
Concept introduction: Nucleophilic substitution reaction takes place by two mechanisms, SN1 and SN2. In SN1 mechanism, formation of carbocation takes place by removal of halide and then nucleophile attack on that carbocation. However in SN2 mechanism, removal of halide and attack of nucleophile takes place simultaneously. The polar protic solvent favors SN1 reaction whereas polar aprotic solvent favors SN2 reaction.
Correctly name this compound using the IUPAC naming system by sorting the
components into the correct order.
Br
IN
Ν
H
How is the radical intermediate for this structure formed? Can you please draw arrows from the first radical to the resonance form that would result in this product? I'm lost.
Part VI.
(a) calculate the λ max of the compound using woodward - Fieser rules.
(b) what types of electronic transitions are present in the compound?
(c) what are the prominent peaks in the IR spectrum of the compound?