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/sci/ - Science & Math


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File: 226 KB, 1145x871, Misawa Japan 03 28 10 shipwreck beach not 040.jpg [View same] [iqdb] [saucenao] [google]
3026290 No.3026290 [Reply] [Original]

A sphere with a diameter of 1km and a temperature of 14 million kelvin gently drops into earth's ocean.

What happens next?

>> No.3026292

something like that doesn't "gently" do anything on an earth-scale.

>> No.3026300

>>3026290
shitstorm.

>> No.3026303
File: 25 KB, 397x212, 2e1vi3d.jpg.png [View same] [iqdb] [saucenao] [google]
3026303

Mass please.

>> No.3026304

>>3026292
somETHING LIKE THAT DOES WHATEVER THE HELL IT WANTS!!!!

>> No.3026316

It would have to be super massive. I imagine all of Earth and the atmosphere would almost instantly be gravitied into a thin layer on the objects surface. Then the rest of the solar system would go all wacky.

>> No.3026319

What's it made of? yes, it matters.

>> No.3026325

mass, velocity, electromagnetic properties.
All of these please.

>> No.3026328

there'd be no ocean before it dropped into the "ocean"

>> No.3026329

>>3026319
Dark matter

>> No.3026331

>>3026316
Uh, no. Nothing that is 1km in diameter will beat the Earth's gravity. Unless you're talking about black holes, I suppose. Neutron stars generally are at least 10 km radius.

>> No.3026334

>>3026303

uhm I don't know...let's say 10^7 kilograms.

>> No.3026340

>>3026331
>implying diameter has anything to do with gravity

>> No.3026370

>>3026319

A soup of protons, neutrons, and electrons.

>> No.3026369

Is it producing this heat or will it cool off according to Newton's law of cooling?

>> No.3026376

>>3026369

I am interested in both scenarios, actually.

>> No.3026378

It explodes violently because of its extreme temperature turning it to plasma, obliterating the nearest few hundred miles with the force of the blast, the amount of oxygen consumed by all the flames cause mass suffocation world wide

>> No.3026382

>>3026340
?
Yes, yes it does. Objects whose size is determined by their self-gravity definitely have this relation.

>> No.3026385

It will melt through earth and drop into space on the other side.

>> No.3026389

>>3026382
>with respect to whatever force they have countering gravity

>> No.3026392

It floats.

>> No.3026399

A lot of steam until it's cold.

>> No.3026405

Someone explain why this is making my dick hard.

>> No.3026409

surface temp tells me nothing about the energy stored inside the thing
MASS PLEASE

>> No.3026414

>>3026409

see

>>3026334

>> No.3026420

guys

guys

what heppens

guys
guys what heppens if our sun enters an xbawsk's gravity field?

>> No.3026434
File: 64 KB, 604x558, On fire yo.jpg [View same] [iqdb] [saucenao] [google]
3026434

>>3026376
If it retains it's heat, it will likely produce a thick, massive, extremely hot, continuous boundary layer of dissociated monoatomic hydrogen and oxygen (and regular superheated steam at the outer layers), thermally decomposed by the extreme heat. This vapor will be pushed upwards by the weight/buoyancy of the surrounding ocean, and more water will continue to be consumed until the ocean's water level falls below the bottom of the ball (or dries up completely, presuming the ball continually sinks into the water). Just about everything in proximity to the ball will be vaporized by the extreme heat. The ball very well could melt it's way through the Earth's crust, given time which would cause who-knows-what to happen).
Now, the vapor boundary layer would reduce direct contact and thermal conduction, but the massive radiation flux from a 14x10^6 K body would be massive enough on its own.

For the other case, the above would happen until the ball cooled to more typical temperatures. Where the terrifying destruction stops depends on the object's net heat capacity.

>> No.3026439

>>3026405
It's making me feel all tingly inside, it's currently hard not to smile, dick is rock hard. Why?