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Interferometric ether-drift experiment nullified by resynchronization of observer's clocks.

|September 10, 2009

Summary

The Marinov experiment reveals that clock resynchronization after acceleration causes apparent apparatus twist. Correcting this twist leads to a null result, challenging interpretations of the experiment.

Area of Science:

Physics
Experimental Physics
Relativity

Background:

The Marinov coupled rotating-mirror-interferometer experiment investigates effects of acceleration on observers.
A key aspect involves clock synchronization for comoving observers post-acceleration.

Purpose of the Study:

To analyze the implications of clock resynchronization in the Marinov experiment.
To explain the observer's interpretation of apparatus 'twist' and its effect on experimental outcomes.

Main Methods:

Analysis of a comoving observer's perspective in the Marinov experiment.
Examination of the consequences of clock resynchronization following acceleration.

Main Results:

Resynchronization causes mirrors to appear at different times from the observer's frame.

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This perceived 'twist' is an artifact of the synchronization process.

Conclusions:

The observed 'twist' in the Marinov experiment is an artifact of clock resynchronization.
Adjusting for this artifact leads to a null result, indicating no intrinsic twist.