In the context of $\mathrm{cyclohexane}$, which chair conformation is most accurately represented by the Haworth projection?

Which of the following cyclohexane chair conformations represents the ring flip of the original structure where a methyl group (${\mathrm{CH}}_3$) is in the axial position on carbon $1$ and a bromine ($\mathrm{Br}$) is in the equatorial position on carbon $4$?

Which of the following chair conformations correctly represents ${\mathrm{trans}}^{1,3}-{\mathrm{dimethyl}}_{\mathrm{cyclohexane}}$?

When $\mathrm{cyclohexane}$ undergoes a chair flip, what happens to the positions of axial and equatorial hydrogens on each $\mathrm{carbon}$ atom?

When a $\mathrm{cyclohexane}$ ring undergoes a chair flip, which of the following statements is correct regarding the positions of substituents on the ring?

Which of the following statements best describes the most stable chair conformation of $\mathrm{methylcyclohexane}$?

Which of the following statements correctly describes the result of a chair flip in $\mathrm{cyclohexane}$?

Which statement best describes the relationship between the two chair conformations of ${\mathrm{cyclohexane}}_{}$?