SUPERLUMINAL, FASTER THAN THE SPEED OF LIGHT IS MEASURED.
FASTER THAN THE SPEED OF LIGHT IS ALWAYS EXISTED ON EARTH, JUST NEVER MEASURED.
Sole Author: Stephen Deratz Email: deratz88@gmail.com
Over a hundred years ago the Michaelson-Morley Experiment tried to detect the theoretical “ether” by measuring the speed of light in two perpendicular directions. The earth’s orbital speed relative to the “ether” should have made a measurable difference in the speed of light between the two directions, however no difference was found, unfortunately there was no ether. The Experiment could not measure the earth orbital speed.
Many theories were made to explain why there was no difference observed, but no actual experiments.
With a novel approach it was thought, it would be possible to observe the breaking of the light speed barrier, it would be worth a lot of experimenting to see that result.
And It would eliminate the immense difficulty caused by the speed of light limit.
The author, an engineer, fitted a prism and a digital camera in a telescope and carried out an experiment with this special apparatus. When aiming at a star which was OPPOSITE of the earth’s orbital path – the star’s ray-speed was measured and found to exceed the speed of light.
This only could happen if the earth’s orbital speed is simply ADDED to the star’s ray-speed. ADDING any speed to the light resulting that it has exceeded the speed of light.
The result was: the light-speed barrier was broken by measuring - faster than light – (superluminal) speeds. The speed was measured 50 thousand km/hr (15 km/s) faster than the speed of light
LIGHT TRAVELS WITH RESPECT TO ITS SOURCE AND RESPECT TO ITS RECEIVER/OBSERVER.
The author’s experiment proved that the source speed of an emitter is added to the emitters speed (became superluminal).
Therefore, length contraction and time dilation never existed.
The author claims priority, this was first time in physics a superluminal speed has been measured.
Obviously, I must supply evidence:
Here is how I measured the light speed: -
The telescope contained a prism, this is the most vital part, because the measurement is based on the refraction angle of the prism. The telescope was first aimed to a faraway light source, then a star. The design allows the light from the star to take two paths to the camera sensor, one path is through the prism and one path is direct. Mirrors are adjusted so that the star image from the direct-path and the star image from the path through the prism fall close together on the D SLR camera sensor.
Any difference between the 2 refraction angles, as determined by measuring the distance in pixels between the star images from the two paths, and the images from another faraway light-source indicated a light speed change.
Snells law:
When the direction ANGLE of the light changes then the light SPEED must change.
Of course, the exact incident light angle is important by aiming exactly the telescope.
After the actual data substituted in the equation of Snells law, it resulted that a 5 arcsecond increase of the refraction angle meant about 50 thousand km/hr speed change.
Thus, my first experimental (superluminal)telescope did measure faster than light speeds.
To develop further, the patentable design and further plans is offered by the sole author.
FASTER THAN THE SPEED OF LIGHT IS ALWAYS EXISTED ON EARTH, JUST NEVER MEASURED.
Sole Author: Stephen Deratz Email: deratz88@gmail.com
Over a hundred years ago the Michaelson-Morley Experiment tried to detect the theoretical “ether” by measuring the speed of light in two perpendicular directions. The earth’s orbital speed relative to the “ether” should have made a measurable difference in the speed of light between the two directions, however no difference was found, unfortunately there was no ether. The Experiment could not measure the earth orbital speed.
Many theories were made to explain why there was no difference observed, but no actual experiments.
With a novel approach it was thought, it would be possible to observe the breaking of the light speed barrier, it would be worth a lot of experimenting to see that result.
And It would eliminate the immense difficulty caused by the speed of light limit.
The author, an engineer, fitted a prism and a digital camera in a telescope and carried out an experiment with this special apparatus. When aiming at a star which was OPPOSITE of the earth’s orbital path – the star’s ray-speed was measured and found to exceed the speed of light.
This only could happen if the earth’s orbital speed is simply ADDED to the star’s ray-speed. ADDING any speed to the light resulting that it has exceeded the speed of light.
The result was: the light-speed barrier was broken by measuring - faster than light – (superluminal) speeds. The speed was measured 50 thousand km/hr (15 km/s) faster than the speed of light
LIGHT TRAVELS WITH RESPECT TO ITS SOURCE AND RESPECT TO ITS RECEIVER/OBSERVER.
The author’s experiment proved that the source speed of an emitter is added to the emitters speed (became superluminal).
Therefore, length contraction and time dilation never existed.
The author claims priority, this was first time in physics a superluminal speed has been measured.
Obviously, I must supply evidence:
Here is how I measured the light speed: -
The telescope contained a prism, this is the most vital part, because the measurement is based on the refraction angle of the prism. The telescope was first aimed to a faraway light source, then a star. The design allows the light from the star to take two paths to the camera sensor, one path is through the prism and one path is direct. Mirrors are adjusted so that the star image from the direct-path and the star image from the path through the prism fall close together on the D SLR camera sensor.
Any difference between the 2 refraction angles, as determined by measuring the distance in pixels between the star images from the two paths, and the images from another faraway light-source indicated a light speed change.
Snells law:
When the direction ANGLE of the light changes then the light SPEED must change.
Of course, the exact incident light angle is important by aiming exactly the telescope.
After the actual data substituted in the equation of Snells law, it resulted that a 5 arcsecond increase of the refraction angle meant about 50 thousand km/hr speed change.
Thus, my first experimental (superluminal)telescope did measure faster than light speeds.
To develop further, the patentable design and further plans is offered by the sole author.
