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Predictions for Future Science


1. Photon Has Weight

  • Photons are the foundational particles of quantum structures.
  • Evidence: Every material, when burned or altered, emits photons, showing they are fundamental to all matter.
  • Experiment: Use an LED light. Measure its weight before and after it burns out, ensuring no evaporation occurs. With precise instruments, a tiny weight loss should be detectable, proving photons have weight.

2. Space Flow and Particle Formation

  • Space flows into every object, forming particles at the quantum level.
  • For quantum particles, this flow is strong enough to maintain their structure.
  • Without objects, there is no space flow. If only one object existed in the universe, all space would flow into it.

3. Rotational Effects on Space Flow

  • Rotating objects like stars and planets create twists or bends in space flow, which could stabilize planetary systems.
  • Hypothesis: If planetary or stellar rotation stops, gravity’s pull intensifies, and angular momentum could diminish faster than expected.
  • Planetary rotation may be critical for maintaining initial orbital velocity, preventing rapid loss of momentum.

4. Light Bending Due to Space Flow

  • Light bends around massive objects because space flows inward.
  • Example: Light passing near the Sun bends as it follows the inward flow of space caused by the Sun's gravity.

5. Photon Energy Loss and Redshift

  • A photon loses energy when traveling against space flow, depending on gravity and space flow strength.
  • Example: Light emitted from the Sun loses energy while escaping the Sun's gravitational field, resulting in a redshift. But the light needs to pass strong Gravity field to get a noticeable redshift result. Depending on the number of Gravity objects and Gravity Strength.

6. Photon Wave Formation

  • Photons push space particles as they travel, creating waveforms visible from all directions.
  • Unlike water waves on a surface, space waves fill all dimensions.

7. Black Hole and Photon Escape

  • At a black hole, photons cannot escape due to extreme space flow.
  • Light reflecting from a black hole loses most of its energy as it meets the inward space flow.

8. Traveling Near a Black Hole

  • With enough energy and strength, objects could theoretically travel near a black hole.
  • Photons cannot escape because they lack continuous velocity and sufficient volume to counteract space flow.

9. Space as a Particle

  • Space is composed of particles, distinct from photons but fundamental in nature.

10. The Universe is Larger than Detected

  • The actual size of the universe is double the currently observable range.

11. The Universe Is Not Expanding

  • The observed expansion is a perspective effect due to galaxies moving away over time.
  • In reality, space flows inward into objects, causing space to shrink over time.

12. Edge of the Universe and SEM Black Holes

  • At the edge of the detectable universe lies an unimaginably massive "Super Extreme Massive (SEM) black hole."
  • This SEM black hole is larger than anything we can currently imagine and acts as a boundary for the universe.
  • The SEM black holes formed shortly after the Big Bang, anchoring the structure of the universe.

13. Balloon Surface Analogy

  • The universe can be compared to the surface of a balloon, where we exist inside the balloon.
  • The "surface" of the balloon represents the edge of the universe, where SEM black holes are concentrated.
  • These SEM black holes pull everything inward from the observable universe, creating the illusion of expansion at different rates.

14. End of the Universe and a New Big Bang

  • Eventually, space will flow entirely into all SEM black holes, leaving no space between them.
  • When these massive black holes merge, they will trigger an immense explosion, initiating a new Big Bang and restarting the universe.

 

Posted
2 hours ago, legendneverdie said:

Predictions for Future Science


1. Photon Has Weight

  • Photons are the foundational particles of quantum structures.
  • Evidence: Every material, when burned or altered, emits photons, showing they are fundamental to all matter.
  • Experiment: Use an LED light. Measure its weight before and after it burns out, ensuring no evaporation occurs. With precise instruments, a tiny weight loss should be detectable, proving photons have weight.

2. Space Flow and Particle Formation

  • Space flows into every object, forming particles at the quantum level.
  • For quantum particles, this flow is strong enough to maintain their structure.
  • Without objects, there is no space flow. If only one object existed in the universe, all space would flow into it.

3. Rotational Effects on Space Flow

  • Rotating objects like stars and planets create twists or bends in space flow, which could stabilize planetary systems.
  • Hypothesis: If planetary or stellar rotation stops, gravity’s pull intensifies, and angular momentum could diminish faster than expected.
  • Planetary rotation may be critical for maintaining initial orbital velocity, preventing rapid loss of momentum.

4. Light Bending Due to Space Flow

  • Light bends around massive objects because space flows inward.
  • Example: Light passing near the Sun bends as it follows the inward flow of space caused by the Sun's gravity.

5. Photon Energy Loss and Redshift

  • A photon loses energy when traveling against space flow, depending on gravity and space flow strength.
  • Example: Light emitted from the Sun loses energy while escaping the Sun's gravitational field, resulting in a redshift. But the light needs to pass strong Gravity field to get a noticeable redshift result. Depending on the number of Gravity objects and Gravity Strength.

6. Photon Wave Formation

  • Photons push space particles as they travel, creating waveforms visible from all directions.
  • Unlike water waves on a surface, space waves fill all dimensions.

7. Black Hole and Photon Escape

  • At a black hole, photons cannot escape due to extreme space flow.
  • Light reflecting from a black hole loses most of its energy as it meets the inward space flow.

8. Traveling Near a Black Hole

  • With enough energy and strength, objects could theoretically travel near a black hole.
  • Photons cannot escape because they lack continuous velocity and sufficient volume to counteract space flow.

9. Space as a Particle

  • Space is composed of particles, distinct from photons but fundamental in nature.

10. The Universe is Larger than Detected

  • The actual size of the universe is double the currently observable range.

11. The Universe Is Not Expanding

  • The observed expansion is a perspective effect due to galaxies moving away over time.
  • In reality, space flows inward into objects, causing space to shrink over time.

12. Edge of the Universe and SEM Black Holes

  • At the edge of the detectable universe lies an unimaginably massive "Super Extreme Massive (SEM) black hole."
  • This SEM black hole is larger than anything we can currently imagine and acts as a boundary for the universe.
  • The SEM black holes formed shortly after the Big Bang, anchoring the structure of the universe.

13. Balloon Surface Analogy

  • The universe can be compared to the surface of a balloon, where we exist inside the balloon.
  • The "surface" of the balloon represents the edge of the universe, where SEM black holes are concentrated.
  • These SEM black holes pull everything inward from the observable universe, creating the illusion of expansion at different rates.

14. End of the Universe and a New Big Bang

  • Eventually, space will flow entirely into all SEM black holes, leaving no space between them.
  • When these massive black holes merge, they will trigger an immense explosion, initiating a new Big Bang and restarting the universe.

 

This is so bad it looks like an attempt at trolling.

Posted
!

Moderator Note

1. There’s no models supporting any of this, so there’s not enough for this to be discussed in speculations

2. One idea per topic is a much better approach; this is a discussion forum, and multiple ideas make for messy discussions

 
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