klettermann
Senior Member
As a retiree I enjoy putting my free time to good use. My most recent work has been with cables. See abstract below. The full paper is attached as .PDF. Cheers,
Restorative Tachyon Field Treatment of Legacy High-End Interconnects:
A Controlled Study
@kletterman April 1, 2026
Abstract
This study evaluates the effects of tachyon field treatment on legacy high-end audio interconnects. A pair of nominally identical cables was examined, with one cable subjected to a 72-hour treatment at a Sedona AZ-based facility and the other retained as a control.
Electrical characterization was performed using frequency response (20 Hz–20 kHz), time-domain analysis (energy-time curves), and wideband noise measurements in the digital domain (dBFS). Across all measurement modalities, no differences were observed within the resolution limits of the test system. Frequency response traces were coincident within approximately 0.05 dB, impulse timing and decay behavior were identical, and noise spectra were indistinguishable down to a system noise floor of approximately −135 dBFS.
Extended listening suggested subtle, non-repeatable differences in spatial coherence, decay characteristics, and perceived high-frequency behavior. These observations were not reliably identified under blinded conditions and did not correlate with measurable changes.
Under the conditions of this study, tachyon field treatment did not produce detectable changes in electrical signal transmission characteristics. The divergence between measurement results and informal listening impressions suggests that any potential effects, if present, lie below conventional measurement thresholds or outside the scope of standard linear analysis.
Restorative Tachyon Field Treatment of Legacy High-End Interconnects:
A Controlled Study
@kletterman April 1, 2026
This study evaluates the effects of tachyon field treatment on legacy high-end audio interconnects. A pair of nominally identical cables was examined, with one cable subjected to a 72-hour treatment at a Sedona AZ-based facility and the other retained as a control.
Electrical characterization was performed using frequency response (20 Hz–20 kHz), time-domain analysis (energy-time curves), and wideband noise measurements in the digital domain (dBFS). Across all measurement modalities, no differences were observed within the resolution limits of the test system. Frequency response traces were coincident within approximately 0.05 dB, impulse timing and decay behavior were identical, and noise spectra were indistinguishable down to a system noise floor of approximately −135 dBFS.
Extended listening suggested subtle, non-repeatable differences in spatial coherence, decay characteristics, and perceived high-frequency behavior. These observations were not reliably identified under blinded conditions and did not correlate with measurable changes.
Under the conditions of this study, tachyon field treatment did not produce detectable changes in electrical signal transmission characteristics. The divergence between measurement results and informal listening impressions suggests that any potential effects, if present, lie below conventional measurement thresholds or outside the scope of standard linear analysis.
