a) CH 3 CH=CH 2 Interpretation: Can CH 3 CH=CH 2 exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry. Concept introduction: The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers. To change: Whether CH 3 CH=CH 2 can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Question

Don't used hand raiting

Answer 1

Question

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

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Reagan is doing an atomic absorption experiment that requires a set of zinc standards in the 0.4-1.6 ppm range. A 1000 ppm Zn solution was prepared by dissolving the necessary amount of solid Zn(NO3)2 in water. The standards can be prepared by diluting the 1000 ppm Zn solution. Table 1 shows one possible set of serial dilutions (stepwise dilution of a solution) that Reagan could perform to make the necessary standards. Solution A was prepared by diluting 5.00 ml of the 1000 ppm Zn standard to 50.00 ml. Solutions C-E are called "calibration standards" because they will be used to calibrate the atomic absorption spectrometer. a. Compare the solution concentrations expressed as ppm Zn and ppm Zn(NO3)2. Compare the concentrations expressed as M Zn and M Zn(NO3)2 - Which units allow easy conversion between chemical species (e.g. Zn and Zn(NO3)2)? - Which units express concentrations in numbers with easily expressed magnitudes? - Suppose you have an analyte for which you don't know the molar…

Answer 2

Question

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

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Answer 3

Question

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Expert Solution & Answer

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Answer 4

Question

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Expert Solution & Answer

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Answer 5

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 6

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 7

Chapter 7.4, Problem 9P

Interpretation Introduction

a) CH₃CH=CH₂

Interpretation:

Can CH₃CH=CH₂ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether CH₃CH=CH₂ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 8

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 9

Interpretation Introduction

b) (CH₃)₂C=CHCH₃

Interpretation:

Can (CH₃)₂C=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To change:

Whether (CH₃)₂C=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 10

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 11

Interpretation Introduction

c) CH₃CH₂CH=CHCH₃

Interpretation:

Can CH₃CH₂CH=CHCH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether CH₃CH₂CH=CHCH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 12

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 13

Interpretation Introduction

d) (CH₃)₂C=C(CH₃)CH₂CH₃

Interpretation:

Can (CH₃)₂C=C(CH₃)CH₂CH₃ exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether (CH₃)₂C=C(CH₃)CH₂CH₃ can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 14

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 15

Interpretation Introduction

e) ClCH=CHCl

Interpretation:

Can ClCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether ClCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 16

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 17

Interpretation Introduction

f) BrCH=CHCl

Interpretation:

Can BrCH=CHCl exist as pairs of cis-trans isomer is to be stated. If so, the structures of cis-trans pair are to be drawn indicating their geometry.

Concept introduction:

The lack of rotation around carbon-carbon double bonds leads to cis-trans isomerism. The requirement is that both the carbons in double bond should be bonded to different substituents. Compounds that have one of their doubly bonded carbons bonded to identical substituents cannot exist as cis-trans isomers.

To state:

Whether BrCH=CHCl can exist as a pair of cis-trans isomers and to draw their structures with the geometry.

Answer 18

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Answer 19

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Answer 29

Ch. 7.2 - Calculate the degree of unsaturation in each of...Ch. 7.2 - Prob. 2P Ch. 7.2 - Diazepam, marketed as an antianxiety medication...Ch. 7.3 - Give IUPAC names for the following compounds:Ch. 7.3 - Prob. 5P Ch. 7.3 - Prob. 6P Ch. 7.3 - Prob. 7P Ch. 7.4 - Prob. 8P Ch. 7.4 - Prob. 9P Ch. 7.4 - Prob. 10P

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