Download these executable files that demonstrate aspects of Energy Field Theory in action:
Click on this link for the theoretical paper that explains the new theory...
Wave_Test.exe that demonstrates aspects of Energy Field Theory in action: Special Relativity (including Length Contraction and Time Dilation) from a Classical Physics perspective.
ClassicalSpecialRelativity.exe that demonstrates aspects of Energy Field Theory in action: Special Relativity (including Length Contraction and Time Dilation) from a Classical Physics perspective. The paths and timing of two orthogonal light signals (light clock) are shown at all stages of travel - initially at rest, then moving at 80% of the speed of light. Also shown is the actual standing-wave of a moving laser cavity.
NOTE: The light pulses are moving at constant speed of c through the background space reference frame at all times (isotropic: the same in all directions), but are an-isotropic (different in different directions) within the moving reference frame. However, this an-isotropy within the moving reference frame is not noticed by the moving observer as all of his round-trip light time measurements are the same - making it appear to him that light's speed is isotropic in his moving reference frame.
Here is how Fresnel Dragging works on the microscopic level. This model is based on the Fizeau experiment. The light travels at c through the vacuum between water molecules, but is carried with a the water molecules at their speed v for a short time each time it encounters a water molecule. See the following paper for the theory, maths and explanation for how Fresnel Dragging works.
Note: there is a Red photon shown every 10th photon - so you can track the progress of the photon through the water more easily.
Vectpotential.zip that demonstrates aspects of Energy Field Theory in action: The modeling of fundamental particles as 3D Electromagnetic standing waves which exhibit different properties, such as wave frequency in/out wave phase propagation (which determines particle's charge), spin (spiral wave rotation) etc. This modeling App has many controls that allow the visualization of many different particles and their different fields. Particles can be viewed from the side or the top, and at different scales/magnifications. The attraction/repulsion between pairs of charged particles can also be modeled.