Sunrives and Sunleaves Makes Gravity Theory Cry :-)

You definitely cannot answer the following question:

SAY, IN EQUINOX:

AT 'SUNRISE' TIME WHY DOES YOUR BODY *NOT* TILT TO THE EAST??

AT 'SUNSET' TIME WHY DOES YOUR BODY *NOT* TILT TO WEST??

If you cannot answer, please cry...

You definitely cannot answer the following question:

SAY, IN EQUINOX:

AT 'SUNRISE' TIME WHY DOES YOUR BODY *NOT* TILT TO THE EAST??

AT 'SUNSET' TIME WHY DOES YOUR BODY *NOT* TILT TO WEST??

If you cannot answer, please cry...

Simply, no external forces are strong enough to produce any visible tilt.

Why would anything have to tilt?

Simply, no external forces are strong enough to produce any visible tilt.

What kind of tilt is it?

Why would anything have to tilt?

If the sun had the gravity force, humans bodies would be attracted by such force and then getting tilted/imballanced, even getting sucked by supposedly the sun's huge gravity force.

Quote from: Macarios on June 21, 2020, 12:59:47 AM

Simply, no external forces are strong enough to produce any visible tilt.

What kind of tilt is it?

Quote

Why would anything have to tilt?

If the sun had the gravity force, humans bodies would be attracted by such force and then getting tilted/imballanced, even getting sucked by supposedly the sun's huge gravity force.

The Sun is very massive, but also very far away. It's not going to suck us off the surface of the Earth which is less massive than the sun, but we are also very close to it. Standing on it in fact.  Think of it like magnets.  You can have a huge magnet and a tiny one, which will attract a paper clip?  Well if the huge magnet is a mile away and the small one is an inch from the paperclip, which will win? And that huge magnet won't pull every metal object for miles around, it gets weaker the further away it is, just like gravity.

But more importantly, the Earth is in orbit around the Sun. An object in an orbit doesn't feel a 'pull' from the object it's orbiting, it's in free-fall and experiences no pull or tilt.

If the sun had the gravity force, humans bodies would be attracted by such force and then getting tilted/imballanced, even getting sucked by supposedly the sun's huge gravity force.

And we are. We, along with Earth orbit the sun.

The only effect you would notice from that is the tidal force of the sun. This would be as a slight increase in weight at sunrise and sunset, and a slight decrease in weight at midday and midnight.
But the effect is quite negligible.

@ Danang :
You seem to assume that the net force on someone's head towards a low sun would be higher at his/her head than at his/her feet.

If the tangential speed of the earth were zero, then indeed someone's head would accellerate towards the sun (it even does so with 100.000 km/s tangential speed), but so would his/her feet and so would the ground (s)he is standing on. Hence there would still be no reason for their relative positions to change.

What you have done is a scientific experiment : You started with a hypothesis, namely some flat-earth model you believe in. On it you based the prediction that round-earthers would be unable to answer your question. Your prediction turned out to be wrong. What conclusion can one draw from your experiment ?

Quote from: Macarios on June 21, 2020, 12:59:47 AM

Simply, no external forces are strong enough to produce any visible tilt.

What kind of tilt is it?

Quote

Why would anything have to tilt?

If the sun had the gravity force, humans bodies would be attracted by such force and then getting tilted/imballanced, even getting sucked by supposedly the sun's huge gravity force.

Have you ever worked out how small the Sun's gravitation Earth really is?
You could easily do it your self from Newton'sequation but someone has already done it:

Q & A: Gravitational pull of the Sun
Q:
how strong is the gravitational pull of the sun
- Zach
Rogers elementary

A:
Isaac Newton found out that the strength of the pull of gravity weakens the farther you get away from an object, in proportion to 1/(r × r), where r is the distance you are away from the center. The strength of the gravitational pull is also proportional to the mass of the object.

The sun is really massive and really big. It has a mass of about 2 times ten raised to the thirtieth power kilograms. (that's 2000000000000000000000000000000 kg), and a radius of about 700000 kilometers.

This makes the strength of gravity on the "surface" of the sun (that is, the photosphere, the shiny part we see), 28 times stronger than the force of gravity on the surface of the Earth.

Out here, at the distance we orbit the sun, the gravitational pull of the sun is only 0.0006 of the strength of the earth's gravity on the surface of the earth.

But that's enough to pull the entire planet around in a big, nearly circular orbit, once per year. And the variation in the strength of the sun's gravitational pull from the part of the earth that faces towards the sun to the part that faces away is partly responsible for the tides of the ocean. The moon's gravity plays a somewhat larger role in the tides. Although it's weaker than the Sun's gravity here, it varies more from one side of the Earth to another.

Tom (w mike)

The Sun is so far away that there is no way you would even notice the difference between the effect at sunrise and noon.