For each structure shown, draw the two chair conformations and choose which is most stable. Be sure that your second chair is the flipped version of the first. [Make sure that wedged substituents are up in the chair, regardless of whether up is equatorial or axial.]
(e)

Draw two chair conformations of the molecules below. Indicate which is most stable.

(a)

For each pair of conformations you drew in Assessment 3.41, indicate which is most stable.

For each pair of conformations shown, choose which is most stable. If both are equally stable, then write 'no difference.' [If both conformations have the same number of axial substituents, choose the one with the smallest axial substituents.]

(e)

For each pair of conformations shown, choose which is most stable. If both are equally stable, then write 'no difference.' [If both conformations have the same number of axial substituents, choose the one with the smallest axial substituents.]

(g)

For each structure shown, draw the two chair conformations and choose which is most stable. Be sure that your second chair is the flipped version of the first. [Make sure that wedged substituents are up in the chair, regardless of whether up is equatorial or axial.]

(g)

Draw the two chair conformers for each of the following and indicate which conformer is more stable:

b. trans-1-ethyl-2-methylcyclohexane

Draw the two chair conformers for each of the following and indicate which conformer is more stable:

d. cis-1,2-diethylcyclohexane

Draw the more stable chair conformer of cis-1-ethyl-2-methylcyclohexane.