ANISOTROPIC LIGHT-VELOCITY AND (FAR FIELD) GRAVITATION IN EXPANDING - - PowerPoint PPT Presentation

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California Presentation Charts for ANISOTROPIC LIGHT-VELOCITY AND (FAR FIELD) GRAVITATION IN EXPANDING SPACETIME Given at the Annual AAASPD Conference (June 2016) in San Diego While


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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

Presentation Charts for

ANISOTROPIC LIGHT-VELOCITY AND (FAR FIELD) GRAVITATION IN EXPANDING SPACETIME

Given at the Annual AAASPD Conference (June 2016) in San Diego While demonstration of the multi-state character of classical physics was a primary intent at the 2015 AAAS-PD conference in San Francisco, theoretical derivation of the purely empirical Milgrom’s law for far- field star dynamics (e.g., asymptotically external to spiral- and spheroidal-galaxies) was a primary intent at the next annual AAAS-PD conference (San Diego, 2016 June). Because the present theory is functionally equivalent to Milgrom’s empirical law in the far-field limit, we may conclude a meaningful degree of empirical confirmation is immediately obtained. An explanation of the key idea underlying (classical) multi-state physics in the derivation of Milgrom’s law is appropriate. We first observe that one-way infinite light speed (inward) is essentially germane. This, however, immediately introduces an apparent contradiction: photons transfer information, and the instantaneous transmission of information over any finite distance is not supported in our experience (although this is possible in principle—see the San Francisco paper and charts). Notwithstanding this (apparent) contradiction, instantaneous information transfer via one-way infinite light-speed is normal function across the cosmos—and indeed also across the hierarchy of distances germane to our local experience, including within the laboratory. To see how this might be possible, consider a photon pulse directed inward from the outer fringe of the Milky Way galaxy. We recognize that each photon of the pulse flies against a positive time-gradient dt/dξ ξ ξ ξ=− − − −dt/dr=1/c, where we should be open to the idea of time-gradients across space-time inasmuch as finite time-gradients have been an essential part of relativity physics since Einstein’s 1905 paper—albeit regarding relatively moving observers rather than (relatively) stationary observers. In its flight each photon (instantly) traverses each length segment on its way to the center, but since there are corresponding time gains the nominal light-speed is recovered as a measurable quantity.

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

As part of this scenario we may further imagine that the light-pulse enters the window of a laboratory

  • n Earth wherein the light-speed is measured by some suitable apparatus. Once again the normal 3E5 km/s

speed is obtained—i.e., the same time-gradient over the (now greatly reduced) finite distance applies. Returning to the AAAS-PD/San Diego charts to follow, theoretical derivation of Milgrom’s non- theoretical relationship for far-field star dynamics is the objective. Because Milgrom’s relationship is duplicated, its important empirical successes are, to reiterate, immediately shared or acquired by the present theory. This in turn promotes multi-state classical theory, as the consequence of one-way infinite light-speed. As another note, there are two inductive advances leading to the theoretical duplication of Milgrom’s empirical relationship: (1) One-way infinite light-speed (inward) combined with the Hubble expansion; and (2) Connecting or uniting the time-dilation attending Hubble expansion with the time dilation attending Schwarzschild’s solution thereby yielding the invariant circular-orbit velocity (in the far-field). These inductive advances within the context of state-of-the-art relativity physics permit the following theoretical derivation of Milgrom’s law in the far-field limit.

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

15 June 2016

“Even if [dark matter] particles are detected directly in the near to far future, the success of MOND on galaxy scales as a phenomenological law, as well as the associated appearance of a universal critical acceleration constant a0 ≃ ≃ ≃ ≃ 10−10 m/s−2 in various, seemingly unrelated, aspects of galaxy dynamics, will still have to be explained and understood by any successful model of galaxy formation and evolution.” Benoıt Famaey and Stacy S. McGaugh, 2012. Thomas E. Chamberlain, PhD Chamberlain-West.com (Rev 1, 11 July 2016)

ANISOTROPIC LIGHT-VELOCITY AND (FAR FIELD) GRAVITATION IN EXPANDING SPACETIME

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

MILKY WAY

Observed Rotation Constant or Rising Keplerian Orbital Velocity Falls

KEPLER’S THIRD LAW— WITH ALL MASS AT THE CENTER

MAJOR PROBLEM IN ASTROPHYSICS: DARK MATTER VERSUS GRT BREAKDOWN

ROTATION CURVE— SHOWING MEASUREMENTS Radius (kpc) Orbital Velocity (km/s)

SUN

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

MAIN THEORETICAL RESULTS

  • The Purely Empirical Milgrom Relationship Vf = (GMa0)1/4 is Given

a Relativistic Derivation

Vf = (GMcH)1/4

in the Galactic and Binary Star Far-Field Domain.

  • Indicated “Breakdown” of GRT in the Gravitational Intermediate-

to-Far Field

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

RHETORICAL QUESTIONS:

  • Is Light Speed Necessarily Isotropic?

No—The Minkowski Metric of GRT Accommodates Anisotropic Light Speed (Including Near Singular—One-Way Infinite ).

  • Is GRT Accepted in the Present Work?

Yes and No: Yes—GRT Must and Will Be Recognized as Highly Accurate Within the Gravitational “Near-Field” (e.g., Solar System). No—Due To Breakdown in the Gravitational “Far Field” (a<a0).

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

ONE-WAY INFINITE LIGHT-VELOCITY WITHIN THE HUBBLE EXPANSION IS THE GATEWAY TO DEEPER SPACETIME THEORY

A.

One-Way (Very-Near) Infinite Light-Velocity:

  • With H=0---of No Predictive Consequence in Special and General

Relativity

B.

Hubble Expansion:

  • With c=Constant---of No Predictive Consequence in Special and

General Relativity

  • --HOWEVER---

C.

A and B Taken Together:

  • A Deeper Theory Becomes Possible (Within Relativity Theory)
  • Because---It Enables Prediction and Explanation of Far-Field

Star-Velocity Flattening

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

FAR-FIELD GRAVITATION THEORY

STATE-OF-THE-ART RELATIVITY PHYSICS

Schwarzschild Solution Hubble Flow At Radius Inwardly Infinite Light-Velocity

Vf

2 = VHVS = (rHcH)1/2(GM/rS)1/2

Vf = (GMcH)1/4

[rH = rS = r] Schwarzschild Time-Dilation: d∆ ∆ ∆ ∆tS/dt = − − − − GM/rSc2

Rotationally “Flat”

In The Far-Field Functionally Identical to Milgrom’s Empirical Relation:

Vf = (GMa0)1/4

COSMOLOGICAL PRINCIPLE --- Or, Optionally, The Specific Union That Gives the Identity

Circular Orbit Velocity From the Lorentz Transformation: VH = (− − − −c2d∆ ∆ ∆ ∆tH/dt)1/2 = (rHcH)1/2 Circular Orbit Velocity From the Lorentz Transformation: VS = (− − − −c2d∆ ∆ ∆ ∆tS/dt)1/2 = (GM/rS)1/2

I.E., ANISOTROPIC LIGHT-VELOCITY

Expansion Time-Dilation: d∆ ∆ ∆ ∆tH/dt = − − − − v/c = − − − − rHH/c

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

NEAR-FIELD INTERMEDIATE-FIELD FAR-FIELD

Binary Star Rotation—Showing Newtonian/General Relativity Theory Breakdown

Newtonian and GRT Prediction

HIPPARCOS DATA

∆ ∆ ∆ ∆Vf = 0.77 km/sec

(In the “Far-Field” Domain—Assuming Opposing Solar Masses) Log(∆ ∆ ∆ ∆V) [km/s] log(separation) [pc]

PRESENT THEORY ∆ ∆ ∆ ∆Vf = 21/2 (GMcH)1/4

Acceleration Constant a0 (Assuming Solar Masses)

Higher Rotation Measurements signify GRT Breakdown

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

Outer (Intermediate-to-Far Field) Mass-Rotation Velocities for Spiral Galaxies

Baryonic Star Dominated Baryonic Gas Dominated

PRESENT (FAR-FIELD) THEORY

Vf = (GM*cH)1/4

b

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

PRESENT (FAR-FIELD) THEORY

σ σ σ σ = (GM*cH)1/4

*

100 101 102 Dispersion σ σ σ σ (km/sec)

The Faber–Jackson relation for spheroidal galaxies, including both elliptical galaxies (red squares) and Local Group dwarf satellites (orange squares are satellites of the Milky Way; pink squares are satellites of M31. From Famaey and McGaugh (2012)

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97th Annual AAAS-PD Meeting 14-17 June 2016 San Diego, California

CONCLUSIONS

REVISED GRT (FAR-FIELD):

  • One-Way infinite Light-Velocity—Necessarily Coupled With Hubble Expansion

(Otherwise of no Empirical Consequence)

  • Far-Field Gravity “g=(gNcH)1/2” Is Then Derived in Accord With the Cosmological

Principle—Functionally Equivalent to Milgrom’s Empirical Law “g=(gNa0)1/2” (Using Extensive “Background” Theory: SRT Einstein’s 1907 Paper “Principle of Relativity and Gravitation” GRT By Way of the Schwarzschild Solution Cosmological Principle Hubble Expansion) EMPIRICAL COMPARISONS:

  • Wide-Binary Star Rotation
  • Spiral Galaxy Rotation
  • Spheroidal Galaxy Star-Velocity Dispersion

THEORETICAL CONCLUSIONS:

  • Galactic Rotation and Dispersion Flattening Is Due To Conjunction of One-Way

Infinite Light-Velocity (Inward) and the Hubble Flow.

  • Necessary to Revise General Relativity—To Accommodate the Intermediate-to-Far

Field (While Saving the Highly Accurate Near-Field—e.g., Within the Solar System)