16:I[8216,["972","static/chunks/972-b28da0de92681928.js","47","static/chunks/47-a7f06e9eda1ac756.js","115","static/chunks/app/%5Bexam%5D/questions/%5Byear%5D/%5Bsubject%5D/%5Bchapter%5D/%5BquestionId%5D/page-7b6f0a12b9cc0206.js"],"BackButton"] 17:I[1553,["972","static/chunks/972-b28da0de92681928.js","47","static/chunks/47-a7f06e9eda1ac756.js","115","static/chunks/app/%5Bexam%5D/questions/%5Byear%5D/%5Bsubject%5D/%5Bchapter%5D/%5BquestionId%5D/page-7b6f0a12b9cc0206.js"],"QuestionViewer"] 15:T4d5,{"@context":"https://schema.org","@type":"Quiz","name":"Ap Eapcet 2024 Gravitation PYQ with Solution","url":"https://pyq-test-series-platform-alsjdcxu2-sameers-projects-41c5a71e.vercel.app/ap-eapcet/questions/2024/physics/gravitation/mb0d6tfc","educationalLevel":"Entrance exam preparation","about":"Ap Eapcet / Physics / Gravitation","hasPart":{"@type":"Question","name":"Ap Eapcet 2024 Gravitation PYQ with Solution","text":"The time period of revolution of a satellite close to planet's surfaces is 80 min . The time period of another satellite, which is at a height of 3 times the radius of the planet from surface is","eduQuestionType":"mcq","acceptedAnswer":{"@type":"Answer","text":"B"},"comment":{"@type":"Comment","text":"According to Kepler's law, T^2 \\propto r^3, where T is the orbital period and r is the orbital radius. For satellites orbiting close to the surface of a planet, we use: T_1: the orbital time period of the first satellite. R: the radius of the planet. Since the first satellite is close to the planet's surface, its orbital radius is approximately equal to the planet's radius, R. For the second satellite, which orbits at a height of 3 times the planet's radius, its orbital radius becomes R + 3R =..."}}}18:T457,

According to Kepler's law, $T^2 \propto r^3$, where $T$ is the orbital period and $r$ is the orbital radius.

For satellites orbiting close to the surface of a planet, we use:

$T_1$: the orbital time period of the first satellite.

$R$: the radius of the planet.

Gravitation

Continue this paper

Similar Gravitation PYQs

More practice from this question