Message from @Akhanyatin

Discord ID: 601220130999107633


2019-07-17 20:58:10 UTC  

So genuine question who's going to area 51

2019-07-17 20:58:41 UTC  

Me that's a stupid question

2019-07-17 20:58:57 UTC  

I am going !!

2019-07-17 20:59:39 UTC  

Ayy time to unveil the truth am i right

2019-07-17 21:02:42 UTC  

@Mono can i be your waifu

2019-07-17 21:02:56 UTC  

Urmm sure

2019-07-17 21:03:32 UTC  

You are a girl right?

2019-07-17 21:03:45 UTC  

Sksksksksksk obvs

2019-07-17 21:37:37 UTC  

4 people are going to area 51

2019-07-17 21:37:41 UTC  

me and the other 3 fingers

2019-07-18 00:19:08 UTC  

@Akhanyatin yes. Space is a vacuum with maybe a few chunks od atoms floating around. But as distance increases gravity unproportionally decreases. Eventually the molecules with kinetic energy escape and the gravity is too weak to pull them back in. Therefor we get a vacuum that escapes earth's atmosphere. Technically the pressure in space isnt zero but it essentially is zero for every calculation purpose.

2019-07-18 00:20:02 UTC  

Vacuum, space in which there is no matter or in which the pressure is so low that any particles in the space do not affect any processes being carried on there.

2019-07-18 00:20:09 UTC  

vacuums

2019-07-18 00:20:09 UTC  

do

2019-07-18 00:20:12 UTC  

not

2019-07-18 00:20:12 UTC  

suck

2019-07-18 00:20:57 UTC  

They dont

2019-07-18 00:21:04 UTC  

High pressure pushes

2019-07-18 01:13:39 UTC  

@the21cat RIP I thought you were a flat earther lol

2019-07-18 01:13:56 UTC  

I was trying to get you to admit that there could be a pressure gradient

2019-07-18 01:14:09 UTC  

it was way easier than expected... but then you're not a FE

2019-07-18 02:45:23 UTC  

FE'ers, how long does it take to fly from Argentina to Australia?

2019-07-18 04:35:07 UTC  

21 cat. Yer loonier than a 3 dollar bill

2019-07-18 05:37:45 UTC  

a pressure gradient indicates a container

2019-07-18 05:37:55 UTC  

every container of pressure has a gradient

2019-07-18 05:38:32 UTC  

why would we deny the pressure gradient when it is characteristic of a container?

2019-07-18 05:39:49 UTC  

lmao gas fills its container so why would there be a pressure gradient in a container

2019-07-18 05:39:53 UTC  

it should be constant

2019-07-18 05:40:01 UTC  

and it isn't constant on earth because we're not in a container

2019-07-18 05:40:12 UTC  

but it's not lmao

2019-07-18 05:40:25 UTC  

¯\_(ツ)_/¯

2019-07-18 05:40:27 UTC  

literally all pressurized containers have a gradient

2019-07-18 05:41:06 UTC  

1

The pressure gradient would be in any container that is in a gravitational field. It's just that in most situations, the gradient in air is too small to worry about and it is ignored.

You can determine the gradient the same way you do pressure underwater. You just multiply the depth of the fluid by the density. For very large columns, the density of air would vary. But for a small container, we can assume it's nearly constant, around ρ=1.225kg/m3
That means near sea level, if the pressure at the bottom of a container is 1atm or about 1013mbar, the pressure 1m higher would be less by the weight of that amount of air.

ΔP=ρgh
ΔP=(1.225kg/m3)(9.81m/s2)(1m)
ΔP=0.12mbar
1m up in your container, the pressure is less by about 0.01%.

2019-07-18 05:41:09 UTC  

huh

2019-07-18 07:07:31 UTC  

that's actually kinda illuminating

2019-07-18 07:08:55 UTC  

it shows that even with constant density atmosphere, you could get a pressure gradient

2019-07-18 07:29:37 UTC  

imagine having to prove we aren't in a container

2019-07-18 12:13:19 UTC  

Imagine having to prove we are

2019-07-18 12:33:49 UTC  

"second law of thermodynamics!"

2019-07-18 12:39:42 UTC  

I mean actually proving it’s existence

2019-07-18 12:41:01 UTC  

what is this debate about