Here's more evidence of an increase in gravitational acceleration upon a 'low-entropy-density-innercore' (LEDI theory) w.r.t satellite galaxies. This ScienceDaily report (Apr 2009) seems to suggest that the idea of changing Newton's basic law of gravity isn't so daft as some people like to think: Time For A New Theory Of Gravitation? Satellite Galaxies Challenge Newtonian Model. What's your opinion?
The proposed LED matter is based on a geometry of a radiating spinning helix and therefore most likely to have an increase in gravitational acceleration upon other LED matter on it's rotational plane. This 'original material from the big bang' or 'low-entropy-matter' explains why the planets revolve on a plane around the sun, why the stars revolve together within a plane and why the eleven brightest of the Milky Way's own dwarf galaxies lie more or less in a kind of disk shape and revolve in the same direction on a plane. The picture of such matter and radiated gravity densities shows that the gravitational pull from a star will begin to fall in magnitude when acting on another star at a certain distance. This is due to the saturation by incoming gravitons falling below the density of fundamental particles within the target star's innermostcore. This theory defines the interstellar distance and the shape of galaxies and their motion within a galaxy. The next step is computer simulation verification.
“ “There is something odd about their distribution”, explains Professor Kroupa. “They should be uniformly arranged around the Milky Way, but this is not what we found.” The astronomers discovered that the eleven brightest of the dwarf galaxies lie more or less in the same plane - in a kind of disk shape - and that they revolve in the same direction around the Milky Way (in the same way as planets in the Solar System revolve around the Sun). Professor Kroupa and the other physicists believe that this can only be explained if today’s satellite galaxies were created by ancient collisions between young galaxies. Team member and former colleague Dr Manuel Metz, now at the Deutsches Zentrum fuer Luft- and Raumfahrt, also worked on the study. “Fragments from early collisions can form the revolving dwarf galaxies we see today” comments Dr Metz. But he adds that this introduces a paradox. “Calculations suggest that the dwarf satellites cannot contain any dark matter if they were created in this way. But this directly contradicts other evidence. Unless the dark matter is present, the stars in the galaxies are moving around much faster than predicted by Newton’s standard theory of gravitation.”
The proposed LED matter is based on a geometry of a radiating spinning helix and therefore most likely to have an increase in gravitational acceleration upon other LED matter on it's rotational plane. This 'original material from the big bang' or 'low-entropy-matter' explains why the planets revolve on a plane around the sun, why the stars revolve together within a plane and why the eleven brightest of the Milky Way's own dwarf galaxies lie more or less in a kind of disk shape and revolve in the same direction on a plane. The picture of such matter and radiated gravity densities shows that the gravitational pull from a star will begin to fall in magnitude when acting on another star at a certain distance. This is due to the saturation by incoming gravitons falling below the density of fundamental particles within the target star's innermostcore. This theory defines the interstellar distance and the shape of galaxies and their motion within a galaxy. The next step is computer simulation verification.
Last edited: