Measurement of the speed of light in one direction

 Published on December 4, 2020

Trying to quantify the speed of light in only one direction seems to be a serious problem that we must clarify. To confirm that light maintains the same speed in one direction and another, I think I have found a system that will allow us to make such a measurement.

On the one hand we have two particles A ( electron, photon , etc.) and B ( electron, photon , etc.) quantum entangled, at one end the particle A inside a suspended magnetic field, generated by a coil that creates said field, next to this there is a sensor coil , where no current flows. (Figure 1)

The sensor coil will allow us to verify if the particle changes in its inertia or spin, inducing a current in it. If the inertia changes, the current generated in the sensor coil will pass to an electronic circuit which will stop the timer clock counting. (Figure 1)

At the other end we have the second particle B. This is also in suspension by a magnetic field, generated by a coil that surrounds it and an electronic circuit that circulates an electric current over it. (Figure 2)

We also have a laser, which will send a burst of light to particle B when you press a pushbutton connected to the laser drive controller circuit and to another circuit that will start the clock count. In other words, the push-button will start the light shot and start the clock. (Figure 3)

When the laser collides with particle B it will cause a change in inertia or spin, which will be transmitted instantaneously to particle A. This will excite the sensing coil of A and stop the timer. (Figure 4) This action is instantaneous, allowing the speed of light to be measured with great precision.

Taking the measured distance between the tip of the laser and the particle B divide it by the time and have the speed of light in one direction.

This is it for now!!