time dilation and gravity

trevorjohnson83

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The Earth is an object moving through space, the faster an object moves, the more time dilation so the stronger its gravity field gets. Gravity field strength increases from mass and movement through the aether. Passing through the aether is analogous to a heat waving passing by. The core heats up from movement through the universe, increasing gravity strength, and simultaneously time dilation.

the core of any balloon atom or planet is 100% insulator, radiation in both cases is spin of the core acting as one, so when the core heats up to the point that it loses insulator property and gains some radiation strength it spins, balances with the heat of movement through the aether, and the balance of spin and movement heat creates a constant temperature in the core, the heat of which bulges out in a gravity field, but is kept from escaping because of the surface pressure on the core balancing with the outward push of radiating heat.
 
The Earth is an object moving through space, the faster an object moves, the more time dilation so the stronger its gravity field gets. Gravity field strength increases from mass and movement through the aether. Passing through the aether is analogous to a heat waving passing by. The core heats up from movement through the universe, increasing gravity strength, and simultaneously time dilation.

the core of any balloon atom or planet is 100% insulator, radiation in both cases is spin of the core acting as one, so when the core heats up to the point that it loses insulator property and gains some radiation strength it spins, balances with the heat of movement through the aether, and the balance of spin and movement heat creates a constant temperature in the core, the heat of which bulges out in a gravity field, but is kept from escaping because of the surface pressure on the core balancing with the outward push of radiating heat.
Is this a suggestion that the core of the earth can never heat up due to the synergy between gravity and the core spin regulating this?

Even if the earths rotation speed changes by a degree or two over a period of time it will be offset to not alter any temperature change?
 
Even if the earths rotation speed changes by a degree or two over a period of time it will be offset to not alter any temperature change?
On what scale is it measured. You're trying to introduce pseudo-science that is not applicable to the topic.

Off topic.
 
Is this a suggestion that the core of the earth can never heat up due to the synergy between gravity and the core spin regulating this?

Even if the earths rotation speed changes by a degree or two over a period of time it will be offset to not alter any temperature change?
If the core temperature changed from its rotation changing it would cause considerable seismic activity I think until it balanced.

Not sure that answers your question. :/
 
If the core temperature changed from its rotation changing it would cause considerable seismic activity I think until it balanced.

Not sure that answers your question. :/
He wants to know the degree change of rotation., measured at sea level.
 
Spin and radiation being the same thing is probably what gives EMR its waveform.
the core probably spins, radiating heat at the crest, and then cools off creating the trough, which heats up again, increasing spin and creating a new crest.

probably the faster the core creates the waveform, the shorter the wavelength, which makes sense.
 
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the core probably spins, radiating heat at the crest, and then cools off creating the trough, which heats up again, increasing spin and creating a new crest.

probably the faster the core creates the waveform, the shorter the wavelength, which makes sense.
Is it possible that the Earth's outer shell rotates around its core? Could this happen on geological time and cause gravitational waves?
 
The Earth is an object moving through space, the faster an object moves, the more time dilation so the stronger its gravity field gets.

That ^ seems to claim that there is a relationship between time and gravity. Indeed, it suggests a cause and effect relationship.

What is the source for that claim? Link?
 
That ^ seems to claim that there is a relationship between time and gravity. Indeed, it suggests a cause and effect relationship.

What is the source for that claim? Link?
Just using my latest puzzle piece of movement heat analogy to expand on some concepts. AI raves about the connection to wave physics and the spin/radiation concept. I don't know if that counts as a source....
 
Just using my latest puzzle piece of movement heat analogy to expand on some concepts. AI raves about the connection to wave physics and the spin/radiation concept. I don't know if that counts as a source....
I am not now and have never been a physicist. But these “concepts” you address, is there any physicist who has delved them with any scientific analysis and calculations? Any papers published? Any links?
 
Is it possible that the Earth's outer shell rotates around its core? Could this happen on geological time and cause gravitational waves?
It's probably possible that the earth is solid into its core, metals losing radiating properties that make the earth, turning them into insulators, and changing there melting points, then there are patches of liquid material that exist within all that solid earth.
 
the phase change from gas to liquid depends on STP so as pressure increases the phase change and boiling point change for metals in the earth.
 
what would be the melting point of steel under the STP of the center of the Earth?

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To estimate the melting point of steel at the center of the Earth, we need to consider the extreme conditions of temperature and pressure present there.

Conditions at the Earth's Core​

  1. Temperature: The temperature at the Earth's core is estimated to be between 4,000 to 6,000 degrees Celsius (7,200 to 10,800 degrees Fahrenheit).
  2. Pressure: The pressure at the center of the Earth is approximately 3.5 million atmospheres (over 350 gigapascals).

Melting Point of Steel​

  • The melting point of steel (primarily an alloy of iron) under normal atmospheric pressure is typically around 1,370 to 1,540 degrees Celsius (2,500 to 2,800 degrees Fahrenheit).

Effect of Pressure on Melting Point​

  • The melting point of materials generally increases with pressure. This is due to the fact that higher pressure requires more energy (in the form of heat) to overcome the forces holding atoms together in a solid state.
  • Under the extreme pressures found at the Earth's core, the melting point of steel would be significantly elevated compared to its melting point at standard atmospheric pressure.

Estimated Melting Point​

Given the conditions at the Earth's core, the melting point of steel could potentially rise to around 1,800 to 2,200 degrees Celsius or even higher, depending on the specific alloy composition and the exact conditions.

Conclusion​

At the center of the Earth, with temperatures ranging from 4,000 to 6,000 degrees Celsius and pressures of approximately 3.5 million atmospheres, steel would likely be in a solid state or, under some conditions, a liquid state, but its melting point would be significantly higher than at surface conditions. This means that while the core is hot enough to melt steel, the pressure would affect the temperature at which it melts.
 
what do you think of the idea that as the surface weight increases, the balloon atoms, which are atoms with a magnetic field from their core no electron or shell, these atoms which are close in proximity, deny each other the ability to spin, increasing how much temperature before they radiate through spin again, effecting phase change properties because the spin that causes phase changes doesn't happen until the temperature is considerably higher?
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Your idea presents an interesting conceptual model regarding atomic behavior under pressure and how it might relate to phase changes and temperature. Let's break down some of the key aspects of your hypothesis:

1. Balloon Atoms and Magnetic Fields

  • Balloon Atoms: The notion of "balloon atoms" suggests a unique kind of atomic structure, potentially with a magnetic core and no electron shell. This is a non-standard interpretation, as traditional atomic models include electrons in defined shells around a nucleus.
  • Magnetic Fields: Atoms do have magnetic moments, primarily due to the spins of their electrons. In your model, it seems you’re proposing that the core's magnetic field plays a central role in atomic interactions.

2. Surface Weight and Proximity

  • Surface Weight: The idea that increasing surface weight (pressure) affects atomic interactions is intriguing. In classical physics, increased pressure can indeed influence atomic spacing and interactions, potentially affecting how atoms behave under different conditions.
  • Proximity Effects: If atoms are close enough to influence each other's spinning or movement, this could lead to changes in energy states. However, in standard physics, the interactions between atoms, including repulsion and attraction, are well understood through quantum mechanics.

3. Spin and Temperature

  • Spin and Phase Changes: The concept that the ability of atoms to "spin" influences phase changes is interesting. In conventional physics, phase changes (like melting or boiling) are indeed related to energy states, where increased thermal energy allows atoms to overcome intermolecular forces.
  • Higher Temperature for Phase Change: If your model suggests that increased proximity and surface weight inhibit atomic spin, thus requiring a higher temperature for phase changes, this could imply a modified understanding of how energy is absorbed and released at the atomic level.

4. Thermodynamics and Phase Transitions

  • Standard Understanding: In thermodynamics, phase changes occur at specific temperatures and pressures based on the substance's properties. Your model would need to account for how these factors interact with known principles of thermodynamics.
  • Experimental Validation: Any new model needs to be tested against experimental data. For instance, pressure and temperature relationships in phase transitions are well-documented for various materials.

Conclusion​

Your idea presents a creative perspective on atomic interactions and phase changes under pressure. While it diverges from established atomic theory and thermodynamics, exploring novel concepts can lead to new insights. If you’re considering developing this model further, it may be beneficial to align it with existing theories or conduct thought experiments to see how it could fit within the framework of modern physics. If you have specific questions or areas you'd like to explore further, feel free to ask!
 
When the core of an atom enters a gravity field, the two cores try to absorb the heat of the other, but gravity cannot be absorbed because the heat in the core is created by the surface, so as the two core's attempt to absorb the heat of the other the heat pulls them together.
 

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