Message from @liks
Discord ID: 684829657132040212
So for a small height D β β (2hR)=β(2R) βh
The distance is proportionnal to the square root of the height but as i said the constant have a unit
so now answer the question, at one foot whats the distance of the physical geometric horizon supposed to be?
Idk it must be less than 6.21 miles as you ask
So if that is the case why do we see the horizon at ten miles plus at one foot height?
Because we dont see the geometrical horizon
we know, we been telling globers that for fives years an more π
So why is it at ten miles?
You know, refraction
which type?
Atmospheric refraction
well no, but okay
we'll go with that
so how can a non-physical horizon refract
Can i dm you an image
you can post here if you like, you now have perms π
Thanks
The optic horizon is in H
so how much refraction can you have
And a hard one i think
You can find a refraction simulator online
So it simulates flat? But its really curved?
can you show curved refraction downwards, an give the maths?
the earth is not flat bro
u trash
just fly a drone into the sky
uguguguugugguguugugug
!mute @My_Muscles_Are_Huge
Yea that was.... something
Here is an example of curved refraction downwards
Iβve done the maths before for a index of refraction that depends on the distance to a plane (like in the video) but i think its much harder for a sphere
I think ill try
Earth is not flat
I just canβt see the earth being flat