Science Memes

11431 readers

978 users here now

Welcome to c/science_memes @ Mander.xyz!

A place for majestic STEMLORD peacocking, as well as memes about the realities of working in a lab.

Rules

Don't throw mud. Behave like an intellectual and remember the human.
Keep it rooted (on topic).
No spam.
Infographics welcome, get schooled.

This is a science community. We use the Dawkins definition of meme.

Research Committee

[email protected]

Other Mander Communities

Science and Research

Biology and Life Sciences

Physical Sciences

Humanities and Social Sciences

Practical and Applied Sciences

Memes

Miscellaneous

founded 2 years ago

MODERATORS

[email protected]

247

ur dada so buff he falls significantly faster than g (mander.xyz)

submitted 1 month ago* (last edited 1 month ago) by [email protected] to c/[email protected]

126 comments fedilink hide all child comments

Tap for spoiler

The bowling ball isn’t falling to the earth faster. The higher perceived acceleration is due to the earth falling toward the bowling ball.

you are viewing a single comment's thread
view the rest of the comments

[–] [email protected] 10 points 1 month ago (1 children)

So let's just look at that again. The bowling ball's (mass m1) acceleration is GM/R². The feather's is also GM/R². They have the exact same acceleration, which is g. I'm not sure where you're getting that the bowling bowl accelerates slower. Meanwhile in the bowling ball's case the Earth's acceleration is higher, as you already said. This results in less free fall time overall.

[–] [email protected] 1 points 1 month ago (1 children)

The acceleration relative to the earth is the same, relative to some point from another system the bowling ball accelerates very slightly slower but accelerates the earth very slightly more towards it. The total acceleration of these two bodies towards each other is g.

[–] [email protected] 1 points 1 month ago

Yeah you're making that statement but it's not true. Their acceleration relative to an inertial reference frame is g. That's what the law of universal gravitation says, I have no idea where you're getting that stuff from.