Earth and Space Sciences Regents practice

Earth and Space Sciences Regents, August 2026, question 40

A model titled Supermoon and Apogee Positions in Moon's Orbit (not drawn to scale) shows Earth at the center, the Moon's actual orbit as a solid line, and a dashed circle tracing the Moon's average distance from Earth. The apogee position is on the left, on the side marked To the Sun, where the solid orbit lies outside the dashed circle. The supermoon position is on the right, where the solid orbit lies inside the dashed circle. The passage says a full supermoon occurs when the Moon is at or very close to perigee, and perigee is when the Moon is closest to Earth.
Figure 2 of 3. It is described together with the first figure.
Figure 3 of 3. It is described together with the first figure.
The question as printed. The same words are typed below.

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What the figure shows

A model titled Supermoon and Apogee Positions in Moon's Orbit (not drawn to scale) shows Earth at the center, the Moon's actual orbit as a solid line, and a dashed circle tracing the Moon's average distance from Earth. The apogee position is on the left, on the side marked To the Sun, where the solid orbit lies outside the dashed circle. The supermoon position is on the right, where the solid orbit lies inside the dashed circle. The passage says a full supermoon occurs when the Moon is at or very close to perigee, and perigee is when the Moon is closest to Earth.

How to think about it

Two things must be settled. First, use the model and the passage to decide where the supermoon is compared with apogee. Second, think about how the pull of gravity between two objects changes as the distance between them changes, and how that pull affects the speed of an object in orbit.

Which statement correctly explains why the orbital velocity of the Moon at the supermoon position is different than at the apogee position?

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