Position measurement time space parameter through switching clock

Abstract

The invention discloses a device which measures the space parameters via switching the position of a clock. The device comprises two or more clocks, a conducting wire, a switchover, a space position identification part and a data processing and recording part. At least one clock is not arranged in the same space position, signals of the clocks converge, measures and records the width data of the different frequency wave via mixing. The experiment of the prototype of the device which can quantitatively measure the difference between two space points by switching the position of the clock and by comparing the relative change of the difference of the frequency before and after switching the positions proves to be feasible. The Mossbauer experiment cannot measure the time variant between any two points and is of high cost, while the device has no special requirements on the environment, is simple in structure and low in cost and is easy to implement, which can be applied in the fields such as aerospace, deep mines, satellite positioning system calibration, can quantitatively measure the relative time variants of the gravitational field, the electric field and magnetic field and promotes the research of basic Physics.

Description

Technical field [0001] The present invention first adopts a multi-clock system to measure the time difference of different positions in space, although the difference is very small. So as to determine the value of gravitational redshift and absolute acceleration of gravitational field, especially the principle is different from previous test methods. The measurement accuracy and speed are improved, and the cost is reduced. It can be used in aerospace, deep prospecting, satellite positioning system correction, basic physics research of space field and gravity field, and can quantitatively measure the relative time parameters of gravity field, electric field and magnetic field. Background technique [0002] At present, comparing the time difference between two points in space requires two clocks that are strictly aligned and synchronized (physical generalized clocks). Measures the difference in time to different heights on the ground. In conclusion, direct measurement of ti...

AI Technical Summary

Problems solved by technology

In physics, the redshift of light waves in the gravitational field is called gravitational redshift. The gravitational redshift is proved by the Mössbauer experiment. Because the Mössbauer experiment requires ultra-low temperature and the experimental cost is extremely high, it can only be done in advanced laboratories. , so it is difficult to make a general-purpose instrument, and it is difficult to popularize and use

Secondly, in principle, although the Mössbauer experiment qualitatively proves the existence of gravitational redshift, it cannot measure the time variation of any two points, so it cannot conveniently and accurately measure the parameters of any space, which has great limitations , so it is impossible to do more extensive and in-depth research on space and gravitational fields

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