A computer graphic investigation of a possible mechanism for the origin of planetary motion

Russell Lowke


  Project Overview
     
    Computer visualizations have been made of the predicted motion of a "prospective planet" ejected from the surface of the sun under the influence of gravitational, electrostatic and magnetic forces. In general, such a planet ends up falling back into the sun, much like a solar flare.

    However, if a planet is ejected at the suns equator with a velocity appropriate to its mass, and the sun has a very high magnetic field, the planet can attain a circular orbit around the sun, as in planetary motion. Furthermore, the magnetic forces on the electrical charges on the planet are such as to produce planetary spin.

    The suggestion is that stars in their volatile formative years might produce masses of such eruptions, some giving birth to planets.

    Research for this theory was formulated by John Lowke, and Fortran77 code to calculate it written by him. The masses of three dimensional numerical data from these calculations are impossible to interpret without the computer visualization of orbital paths.
  README and Code

 

README

Power Point Presentation

Original "Solar2" Fortran77 code as supplied by John Lowke

Converted version of "Solar2" to C++

"Solar2" TCL files used with VTK for visualization

"A magnetic field mechanism for the origin of planetary motion"
Lowke J J and Lowke R J, 28th Inter Conf. Phenomena in Ionized Gases, Prague, July 2007, pages 1873-1876, paper 5P07-03.

  Screen Shots

 
a_nice

b_1planet

c_many

d_equ+45

e_crossover

g_many2

h_orbit

j_galaxy