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Why is it so difficult for you to remember that simple issue?Why do we have to discuss about the same issue again and again?
But based on any observation that we have when the ratio between the orbital object to the main mass is more than 81, the orbital object would ALWAYS spiral outwards!
It's not a matter of me remembering it.
QuoteQuote from: Dave Lev on Yesterday at 20:29:25But based on any observation that we have when the ratio between the orbital object to the main mass is more than 81, the orbital object would ALWAYS spiral outwards!you made that up.is 81 the sum of your lottery numbers?
Quote from: Dave Lev on Yesterday at 20:29:25But based on any observation that we have when the ratio between the orbital object to the main mass is more than 81, the orbital object would ALWAYS spiral outwards!
Your ability to remember our discussion is quite poor.
I have already explained that the 81 is the mass ratio between the Erath to the Moon.But as expected – you have already forgot it
I have also explained that ALL the Moons and all the Planets in the solar system and even in the entire Universe spiral outwards from their main orbital object
As I pointed out, the difference in behaviour is due to tides and they are irrelevant to discussions of black holes.
Only one is good enough.
Maybe you will understand it better as a video.This is what we expected to seehttps://www.ligo.caltech.edu/video/ligo20160211v9
Quote from: Bored chemist on 23/07/2021 15:42:26Maybe you will understand it better as a video.This is what we expected to seehttps://www.ligo.caltech.edu/video/ligo20160211v9Dear BCIt seems that you didn't understand my request.The Ligo is all about orbital system with similar mass (The ratio is 1:3).I'm asking for an example with higher mass ratio where the main mass is much more massive with regards to the orbital object. (If possible at least 1:81)Is it clear to you by now?So, please try to offer one example of orbital system (with mass ratio above 1:81) and show that the orbital object spirals inwards.
Well, here goes.https://en.wikipedia.org/wiki/Tiangong-1#/media/File:Altitude_of_Tiangong-1.svgOrhttps://en.wikipedia.org/wiki/Phobos_(moon)#Predicted_destructionorhttps://en.wikipedia.org/wiki/6489_Golevka
I realise a mere fact won't stop you pretending that you are right, will it?
Quote from: Bored chemist on 23/07/2021 18:24:01I realise a mere fact won't stop you pretending that you are right, will it?
both of them are quite similar and they orbit around the same planet.
Quote from: Dave Lev on 24/07/2021 17:21:45both of them are quite similar and they orbit around the same planet.In "opposite directions". One orbits faster than the planet's spin; the other slower.
I'm saying it's more complicated than that, but irrelevant because your hallucination requires a breach of the conservation laws.
why don't you solve this problem?
QuoteQuote from: Dave Lev on Yesterday at 18:37:07why don't you solve this problem?It isn't really a problem. Experimentally, we know the outcome; that's what LIGO is for.
Quote from: Dave Lev on Yesterday at 18:37:07why don't you solve this problem?
How LIGO could help you understanding if the orbital object should spiral inwards or outwards?
As it isn't a problem and you know the outcome, then why while Phobos spirals inwards, his brother - Deimos spirals outwards?
Quote from: Dave Lev on 25/07/2021 02:34:09As it isn't a problem and you know the outcome, then why while Phobos spirals inwards, his brother - Deimos spirals outwards?Tidal drag pulls on one, but pushes on the other.
How the same tidal force can pull one orbital object and push the other one?
Why do you ignore the orbital radius & Orbital velocity in your reply?