Abstract
The Azimulthal Hyper-Projection onto spacetime Model (AHOSM) of Cosmology is just an extension of the familiar Atlas map of a globe in geography class. The Atlas is an azimuthal projection of 3 spacial dimensions projected onto a 2 dimensional plane. The important feature of an Atlas is that the geometry expands asymptotic toward the horizon, and is therefore POSITIONALLY DEPENDENT, such that if North America is centrally positioned, then Siberia and Alaska are viewed as extremely remote. Thus if the Bering Strait were centrally positioned, then longitudinal meridians of North America would likewise be viewed as being extremely remote. AHOSM extends this concept to a hyper-projection of hyper-spacetime (4 spacial dimensions) onto spacetime. However as viewed in spacetime, geodesics appear to be expanding outward in 3 dimensional space away from the observer. Thus by extension, AHOSM is also POSITIONALLY DEPENDENT, such that the most remote galaxies only appear to be mutually separated (from each other) with extreme distance, as viewed from our central position, and vice versa our local group of Galaxies would appear to be mutually separated with extreme distances from a remote perspective.
A proposed experiment is offered to prove that the distance from Earth to Mars is measured greater from the perspective of the outer solar system and vice versa.
Red-shifting is alternatively proposed as azimuthal angular projections of wavelengths \(\lambda\). Magnitude is alternatively proposed as a function of Lambert's cosine law of illumination, over expanding geodesics. This simple parsimonious model requires only a few assumptions, excluding dark energy to satisfy the Cosmological Constant \(\Lambda\), and is shown to match the Universal expansion rate, as established from supernova cosmology survey points. Galaxy rotation curves are simply and accurately explained as measured expanding geodesics and density, along the observer's line of site
The justification of such a radically novel model is from recent observations from the first dataset, provided by NASA's James Webb Space Telescope (JWST) of six massive galaxies, at a time in the early universe, seem to defy conventional cosmological models, as they appear to be as mature and developed as our own local group. Such unexpected discoveries JUSTIFY A RADICALLY NOVEL MODEL OF COSMOLOGY. TO QUOTE JOEL LEJA, ASSISTANT PROFESSOR OF ASTRONOMY AND ASTROPHYSICS AT PENN STATE “IT TURNS OUT WE FOUND SOMETHING SO UNEXPECTED IT ACTUALLY CREATES PROBLEMS FOR SCIENCE. IT CALLS THE WHOLE PICTURE OF EARLY GALAXY FORMATION INTO QUESTION”.
Reference5 articles.
1. CoxeternH. Introduction to Geometry (2). Wiley, Manhattan, 1969.
2. TaylornE and WheelernJA. Spacetime Physics. WH Freeman and Company, New York, 1992.
3. nR Waynant. Electro-Optics Handbook. McGraw-Hill, 1994.
4. ButikovnE. Motions of Celestial Bodies. IOP Publishing, Philadelphia, 2014.
5. T. Jaakkola, P. Teerikorpi, and K. Donner. On possible systematic redshift across the disks of galaxies. Astronomy and Astro- physics., 1975.