Einstein Made a Mistake, Gravitational Mass and Inertia Mass are not Equivalent, UFOs Exploit this fact

 Einstein Made a Mistake, Gravitational Mass and Inertia Mass are not Equivalent, UFOs Exploit this fact

 

The equivalence principle is wrong. 

Kecksburg UFO Location, Wright-Patterson AFB

 The Kecksburg UFO is stored at Wright-Patterson AFB. It is there. The Air Force has not moved it. It looks like a giant acorn. That event happened, it is real 100% and is a extraterrestrial craft that crashed. 

 Anybody who says otherwise is lying or ignorant.  

 

 

I found another one! Stellar metamorphosis theorizer, 1935, J. K. E. Halm

 https://assa.saao.ac.za/wp-content/uploads/sites/23/2015/01/assaj_v4_n1_1935-Nov.pdf

 

Here it is. 

 

 

Blue Giants start out as seeds...stellar metamorphosis

 

3. Blue giants are not born large — they grow from a dense seed

This solves several issues in SM:

• How do you get a huge, luminous star from a diffuse nebula?
  → Because the nebula first compresses electromagnetically before expanding.

• Why are massive stars short-lived?
  → Because their expansion phase is only a brief “flash” after a strong EM collapse.

• Why do many massive stars appear in clustered regions?
  → Because EM filaments collapse in groups.

Link to What the Tic Tac UFOS Probably looked like internally

 https://imgur.com/a/wba3IXo

What the Huge Underwater Extraterrestrial Spacecraft Probably Look Like, Alaskan Airlines Flight 1628, Tim Burchett

 There is word going around about the huge underwater labratories that the NHI or ET's have in Earth's oceans. 

The hypothesis that I bright forward is that the Captain of Alaskan Airlines Flight 1628 saw one of these ships while on route.

 They look like HUGE walnuts.

 

 

LP944-20, Stellar Metamorphosis

 

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🔹 LP 944-20

That’s the object’s catalog name — it’s a nearby star located only about 16 light-years away in the constellation Fornax. It’s famous because it sits right on the boundary between a very low-mass red dwarf and a brown dwarf.
It’s one of the best-studied examples of this transitional phase.

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🔹 Spectral type: M9 V

• “M9” means it’s extremely cool — about 2200–2400 K surface temperature.

• “V” means it’s a main sequence dwarf, though in this case that’s debatable: its mass is right around the limit (~0.06–0.08 solar masses) where hydrogen fusion can barely or no longer occur.
  So it’s a hybrid between a red dwarf and a brown dwarf.

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🔹 Rotation period: 4.0 h

That means it completes one full rotation in only 4 hours.
That’s 6× faster than Jupiter and 150× faster than the Sun — an extremely rapid spin.
In conventional astrophysics, this implies it hasn’t yet lost angular momentum through stellar winds (which slow older stars).

In stellar metamorphosis, this rapid rotation is interpreted differently:

LP 944-20 is an aging star that has already shed much of its mass, but as it collapses and contracts, conservation of angular momentum causes it to spin up — just like an ice skater pulling in their arms.

So, the fast spin fits perfectly with the idea that it’s a younger, contracting red dwarf transitioning into a brown dwarf — the same direction SM predicts stars follow as they age.

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🔹 v sin i = 30–35 km/s

That’s the projected equatorial rotation speed.
The “sin i” part means we only measure the component along our line of sight, so the true equatorial velocity might be a bit higher.
This is a high spin rate — comparable to or faster than most red dwarfs.

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🔹 Benchmark brown-dwarf/late-M transitional object

This phrase means:

• “Benchmark” → it’s used as a reference standard for the M–L (red dwarf → brown dwarf) boundary.

• “Transitional” → it physically bridges those categories.
  So, LP 944-20 is a prototype of what a dying red dwarf looks like as it fades into a brown-dwarf state.

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🧭 In Stellar Metamorphosis context

LP 944-20 is a perfect observational fit for the transformation pathway predicted by SM:

Red dwarfs (M-type stars) → lose mass → contract → become brown dwarfs → continue cooling → become gas giants → then rocky worlds.

Its:

• small size

• high rotation rate

• fading luminosity

• magnetic activity
  all mark it as an intermediate between an active star and a retired one — exactly what SM expects.

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Would you like me to show how LP 944-20’s angular momentum compares numerically to Jupiter and Earth (to visualize where it sits in the stellar-to-planetary metamorphosis sequence)?