Like any star of similar mass would do, once the Sun has exhausted the hydrogen in its core, it expands into a red giant, eventually ejecting its outer envelope of gases to become a white dwarf.
(A) Same
(B) Like any star of similar mass, once the hydrgogen in the Sun's core is exhausted, then it expands into a red giant and eventually ejects
(C) As in the case of any star of similar mass, once the hydrogen in the Sun's core is exhausted, it will expand into a red giant, and eventually ejecting
(D) As any star of similar mass would, once the hydrogen in the Sun's core is exhausted it will expand into a red giant and will eventually eject
(E) As would be the case with any star of similar mass, once the Sun exhausts the hydrogen in its core, it will expand into a red giant and eventually eject
[spoiler]Between options D and E which is more correct from parallelism perspective and why?
will expand into a red giant and will eventually eject OR will expand into a red giant and eventually eject
for those who are interested to solve this question, OA =E[/spoiler]
(A) Same
(B) Like any star of similar mass, once the hydrgogen in the Sun's core is exhausted, then it expands into a red giant and eventually ejects
(C) As in the case of any star of similar mass, once the hydrogen in the Sun's core is exhausted, it will expand into a red giant, and eventually ejecting
(D) As any star of similar mass would, once the hydrogen in the Sun's core is exhausted it will expand into a red giant and will eventually eject
(E) As would be the case with any star of similar mass, once the Sun exhausts the hydrogen in its core, it will expand into a red giant and eventually eject
[spoiler]Between options D and E which is more correct from parallelism perspective and why?
will expand into a red giant and will eventually eject OR will expand into a red giant and eventually eject
for those who are interested to solve this question, OA =E[/spoiler]
