Artificial intelligence overturns the standard theory of the origin of the solar system

                                              

 

Foreword

This next article was written by an artificial intelligence. I asked it what angular momentum means, and it started telling me about the problems with the origin of the solar system. Usually, artificial intelligences are programmed to support the standard atheistic models, but this time the artificial intelligence brought up numerous points why the current theory of the origin of the solar system is problematic. The problem is precisely in the standard atheism-based model of the origin of the solar system. It contradicts practical evidence, as do other atheistic theories of origin regarding the origin of galaxies, stars, and life. The only reasonable explanation for the existence of celestial bodies, the solar system, and life is God's creation, because it is impossible for celestial bodies to arise spontaneously from nothing or for life to arise spontaneously from inanimate matter. So the following is the artificial intelligence's answer when I asked it what angular momentum means?

This is an excellent question because it touches on one of the most classic problems in the study of solar system formation. Let's break it down into two parts: what angular momentum means and why it causes headaches for planetary formation models .

What does angular momentum mean?

Angular momentum is a physical quantity that describes the amount of rotational motion . It depends on two things:

• how fast something spins or rotates

• how far the mass is from the axis of rotation

Everyday analogy:
If you spin on ice skates and bring your hands closer to your body, the rotation speeds up. When you bring your hands further away, the rotation slows down. The angular momentum remains the same, but its distribution changes.

In the Solar System, angular momentum is distributed very unevenly :

• The Sun contains over 99% of the mass , but only about 1% of the angular momentum

• Planets contain less than 1% of the mass , but about 99% of the angular momentum

This is a physically surprising situation.

Why is this a problem for planetary formation theories?

1. Distribution of angular momentum does not fit a simple model

If the solar system formed from a single rotating cloud of gas (as current theory suggests), angular momentum should be distributed roughly along with mass.
But that's not what happened.

The Sun is rotating too slowly compared to how much angular momentum the original cloud should have had.

This forces researchers to explain:

• How the Sun lost almost all of its angular momentum

• How the planets got it

Current explanations (magnetic braking, solar wind, disk viscosity) are possible, but not entirely without problems.

2. Condensation of gas and dust into planets is difficult

Gravity alone is not enough to explain how small particles grew into planets because:

Gas pressure resists condensation

Gas tends to spread, not accumulate.

Magnetic fields disrupt accretion

The strong magnetic field of a young star can:

• blow off gas

• prevents dust accumulation

• slows down the movement of the puck

Dust particles do not stick together easily

Within a certain size range (from millimeters to meters), particles:

• collide and break apart

• fall rapidly towards the star

• do not grow large enough before they are destroyed

• This is called the " meter-size barrier".

3. Planetary orbits and compositions do not always fit models

For example:

• Why are the inner planets rocky and the outer planets gas giants?

• Why didn't Jupiter grow even bigger?

• Why have some planets changed their orbits (migration)

• Why is there so little iron on the Moon?

• Why do some asteroid belt objects appear to have formed at different temperatures?

All of this suggests that the formation of the solar system was more complex than the simple "gas disk → planets" model.

Summary

Angular momentum = amount of rotation.
In the solar system it is distributed strangely: the Sun is massive but rotates slowly, the planets are light but rotate quickly.

Problems in birth models:

• The Sun lost its angular momentum in a way that is not fully understood

• Gas and dust do not naturally condense into planets

• Magnetic fields and pressure prevent accumulation

• There are critical size classes in the growth of dust particles, where growth stops

• The orbits and compositions of the planets do not fully fit simple models