New Research Shows Measurable Bioelectrical Effects of The Light System Consumer Technologies

Studies of the TLS Supercharged Bracelet, Supercharged Water Bottle and TLS Watch report measurable changes in cellular bioelectrical activity using Electrochemical Impedance Spectroscopy

Miami, FL -  The Light System (TLS), a technology company focused on light, frequency and bioelectrical research, is highlighting a series of research studies examining measurable bioelectrical responses associated with three of its consumer technologies: the TLS Supercharged Bracelet, TLS Supercharged Water Bottle and TLS Watch.

The studies, led by quantum biologist Dr. Glen Rein, used Electrochemical Impedance Spectroscopy, or EIS, to measure electrical properties at the cellular level. Across the three studies, researchers reported measurable changes in impedance and conductivity under the conditions tested, including responses of up to 80% in the TLS Watch study, up to 77% following consumption of water treated in the TLS Supercharged Water Bottle and a sustained conductivity response of approximately 61% following removal of the TLS Supercharged Bracelet.

The findings form part of a broader research program published by The Light System examining how its technologies interact with measurable bioelectrical activity.

TLS Supercharged Bracelet Study Examines Effects During and After Wear

The TLS Supercharged Bracelet study compared the Supercharged Bracelet with an identical uncharged bracelet by measuring electrical changes in living human cheek cells.

The Supercharged Bracelet produced significantly larger measured responses than the uncharged bracelet. After four hours of wear, cellular conductivity increased by approximately 50%.

What stood out most was what happened after the bracelet was removed. The measured effect continued, with conductivity reaching approximately 61% above baseline 12 hours after removal and remaining near that level through the 24-hour observation period.

The study found that the Supercharged Bracelet produced measurable bioelectrical changes that were stronger than the uncharged control and continued even after the bracelet was no longer being worn.

Supercharged Water Bottle Study Reports Up to 77% Cellular Response

The TLS Supercharged Water Bottle study examined whether the bottle could change the electrical properties of water and whether drinking that water was followed by measurable changes in cellular electrical activity.

Researchers compared water stored in a Supercharged Bottle with water stored in an identical non-supercharged bottle. After 20 hours, the water in the Supercharged Bottle showed a 35% decrease in impedance, indicating increased conductivity, compared with a much smaller change of approximately 10% in the control bottle.

Researchers also measured cheek cells after a subject drank the water. The largest response occurred after drinking water that had been in the Supercharged Bottle for approximately 20 hours, with a 77% increase in cellular impedance measured 45 minutes later.

Overall, the study found measurable electrical changes in both the water itself and in cells following consumption under the conditions tested.

TLS Watch Study Examines Two Operating Modes

The TLS Watch study examined how different watch configurations affected the electrical activity of living human cheek cells over time.

Researchers compared the TLS Watch with a Supercharged band to an identical uncharged band. They also tested the watch’s TLS interval feature, which activated for five minutes every two hours.

The largest response occurred with the Supercharged band, which produced an increase in cellular impedance of up to approximately 80%, peaking after 15 hours. The uncharged band produced much smaller responses.

Researchers also found that activating the TLS intervals produced a different response. Without the intervals, measurements remained mostly below baseline. With the intervals activated, cellular impedance increased by as much as approximately 40%.

Overall, the study found that both the Supercharged band and TLS interval feature produced measurable changes in cellular electrical activity under the conditions tested.

Building a Research Record Around Bioelectrical Measurement

Together, the three studies reflect The Light System's growing focus on measuring its technologies through EIS and controlled comparisons rather than relying exclusively on subjective user experiences.

The company's broader research library also includes studies involving the TLS Chair, TLS Cube, TLS Pyramid, and more. The Light System identifies Dr. Glen Rein as its lead research scientist and describes him as a quantum biologist with more than 40 years of experience involving bio-electromagnetics, quantum biology and energy medicine, including research roles at Mount Sinai and Stanford Medical Center.

The findings add to TLS's developing body of research examining whether its technologies are associated with measurable changes in bioelectrical activity and provide a basis for further investigation, replication and expanded study.

About The Light System

The Light System develops technologies centered on light, frequency and bioelectrical interaction. Its product ecosystem includes wearable and consumer technologies as well as larger systems, including the TLS Watch, Cube, Pyramid, Sphere and Chair. The company maintains an online research library documenting studies and observations involving its technologies.

For additional information and access to the research, visit TheLightSystems.com/research.

Media Contact:

The Light System
TheLightSystems.com