A gravitational wave [1] observed at LIGO (Laser Interferometer Gravitational-Wave Observatory) [2] may provide experimental confirmation of two major results of binary mechanics (BM) [3]: (1) objects tend to move toward regions of higher vacuum energy density [4] [5] [6] and (2) light speed in vacuum decreases at reduced vacuum energy density [7] [8]. This paper outlines how the BM model of gravitational effects and the land-mark light speed discovery may fully account for the LIGO gravitational wave data.
by James J Keene PhD
Journal of Binary Mechanics, 21st century physics with quantized space, time and energy
Thursday, April 28, 2016
LIGO Gravity Wave Mechanism
Abstract and Introduction
A gravitational wave [1] observed at LIGO (Laser Interferometer Gravitational-Wave Observatory) [2] may provide experimental confirmation of two major results of binary mechanics (BM) [3]: (1) objects tend to move toward regions of higher vacuum energy density [4] [5] [6] and (2) light speed in vacuum decreases at reduced vacuum energy density [7] [8]. This paper outlines how the BM model of gravitational effects and the land-mark light speed discovery may fully account for the LIGO gravitational wave data.
Table 1: LIGO Gravitational Wave Mechanism and Detection
A gravitational wave [1] observed at LIGO (Laser Interferometer Gravitational-Wave Observatory) [2] may provide experimental confirmation of two major results of binary mechanics (BM) [3]: (1) objects tend to move toward regions of higher vacuum energy density [4] [5] [6] and (2) light speed in vacuum decreases at reduced vacuum energy density [7] [8]. This paper outlines how the BM model of gravitational effects and the land-mark light speed discovery may fully account for the LIGO gravitational wave data.
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