Introduction

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This study evaluates the bioelectrical effects of a TLS Supercharged Bracelet using Electrochemical Impedance Spectroscopy (EIS), a scientific method used to measure electrical properties at the cellular and molecular levels. EIS provides quantitative measurements of impedance and conductivity, allowing researchers to evaluate changes in cellular electrical activity following exposure to external influences.

 

The objective of this study was to compare the bioelectrical effects of a TLS Supercharged Bracelet to those of an identical uncharged bracelet and to evaluate how the magnitude and duration of the response change over time. Measurements were obtained using living human buccal (inner cheek) cells before and after various bracelet exposure periods.

 

By comparing active wear and post-removal responses, this study provides quantitative evidence regarding both the immediate and sustained bioelectrical effects associated with

the TLS Supercharged Bracelet.​

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Scientific Basis

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Electrochemical Impedance Spectroscopy (EIS) measures how electrical energy moves through, interacts with, and is stored within biological systems. These measurements provide information about the electrical properties of cell membranes and the body's overall bioelectrical state. Impedance consists of both real and imaginary components.

 

The real component reflects resistance to electrical current flow, while the imaginary component reflects the storage and accumulation of electrical charge within biological systems. Together, these measurements provide a comprehensive characterization of cellular electrical activity and membrane-associated bioelectrical function.

 

Previous scientific studies have associated higher impedance values with improved cellular integrity, fluid balance, tissue health, and cellular function (Yamada et al., 2022; Catapano et al., 2023; Kim et al., 2025). Increased conductivity has also been associated with enhanced movement of electrical energy through biological tissues and has been studied in relation to cellular communication, electrical stimulation, and biological regulation (Jeong et al., 2013; Tanaka et al., 2016; Hsieh et al., 2019).

 

Because biological systems depend upon electrical activity to regulate cellular function, measurable changes in impedance or conductivity indicate that an external influence is affecting the body's bioelectrical environment.

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What This Study Demonstrates

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This study was designed to evaluate the measurable bioelectrical effects of a TLS Supercharged Bracelet compared to an identical uncharged bracelet control. Measurements were obtained using Electrochemical Impedance Spectroscopy (EIS) following multiple wear durations and after bracelet removal.

 

The results demonstrate that the uncharged bracelet produced only modest changes in cellular electrical activity, averaging approximately 17% throughout the study period. In contrast, the TLS Supercharged Bracelet produced substantially larger responses, including a 28% increase in impedance after one hour of wear and conductivity increases exceeding 60% following removal.

 

The study further demonstrates that the bioelectrical response persisted beyond the active wear period. Following removal of the bracelet, conductivity continued to increase and remained elevated through the twenty-four-hour observation period. Together, these findings provide quantitative evidence that the TLS Supercharged Bracelet produces measurable and sustained changes in cellular electrical activity that continue well beyond the period of active exposure.

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Methods

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The bioelectrical effects of a TLS Supercharged Bracelet were evaluated using Electrochemical Impedance Spectroscopy (EIS). Measurements were performed on living human buccal (inner cheek) cells collected before and after bracelet exposure. An identical uncharged bracelet was evaluated as a control using the same protocol. The bracelet was worn on the left wrist for various exposure durations while minimizing interaction with cell phones, computers, and other electronic devices whenever possible. Impedance measurements were obtained before exposure and at multiple time intervals during and after bracelet wear. Percent change values were calculated relative to baseline measurements obtained prior to treatment. Each sample was measured in triplicate, and the average value was used for analysis.All results are reported as percent change relative to baseline measurements.

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Results and Discussion

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Figure 1 compares the bioelectrical response produced by a TLS Supercharged Bracelet and an identical uncharged bracelet during continuous wear over a twenty-four-hour period. The uncharged bracelet produced relatively modest fluctuations in impedance, ranging from approximately 2% to 31%, with an average increase of approximately 17% throughout the study. These findings indicate that the bracelet material alone may produce small measurable changes in cellular electrical activity.

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In contrast, the TLS Supercharged Bracelet produced substantially greater bioelectrical responses at multiple time points throughout the study. After one hour of wear, impedance increased by approximately 28%. After four hours of continuous wear, the response shifted toward increased conductivity, corresponding to an approximately 53% decrease in impedance. This enhanced conductivity response persisted through twelve hours of continuous wear. After twenty-four hours of continuous use, the magnitude of the response decreased but remained elevated at approximately 21% relative to baseline. Overall, Figure 1 demonstrates that the TLS Supercharged Bracelet produced a stronger and more sustained bioelectrical response than the uncharged control. While both bracelets generated measurable changes in cellular electrical activity, the TLS Supercharged Bracelet consistently produced larger effects, particularly during the four-hour and twelve-hour exposure periods. These findings indicate that the TLS Supercharging Process significantly amplifies the measurable bioelectrical impact of the bracelet beyond that attributable to the bracelet material alone.

 

A separate experiment was conducted to evaluate whether the bioelectrical effects persisted after removal of the bracelet, as seen in Figure 2.

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Following one hour of wear, impedance increased by approximately 24%. After four hours of wear, conductivity increased by approximately 50%. The bracelet was then removed and additional measurements were obtained throughout the following twenty- four-hour period. Rather than declining immediately, the response continued to increase after removal. Conductivity reached a maximum increase of approximately 61% twelve hours after the bracelet had been removed and remained near this level through the twenty-four-hour observation period. This sustained response represents the most significant finding of the study. The results indicate that the measurable bioelectrical effects generated during bracelet exposure continued well beyond the active wear period and remained elevated for at least twenty-four hours after removal. Compared to continuous wear, the post-removal response remained stronger and more sustained throughout the observation period, suggesting that the bioelectrical effects initiated during exposure continue to influence cellular electrical activity after the bracelet is no longer being worn.​

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Conclusion

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The results of this study demonstrate that the TLS Supercharged Bracelet produces measurable changes in cellular bioelectrical activity that exceed those observed with an identical uncharged bracelet control. While the uncharged bracelet produced only modest changes averaging approximately 17%, the TLS Supercharged Bracelet generated substantially larger responses, including increases in impedance during the initial stages of wear and conductivity increases exceeding 60% following exposure. The most significant finding was the persistence of the response after bracelet removal. Conductivity continued to increase after exposure ended, reaching approximately 61% above baseline and remaining elevated throughout the twenty-four-hour observation period. Taken together, these findings provide quantitative evidence that the TLS Supercharged Bracelet produces rapid, measurable, and sustained bioelectrical effects. The results indicate that the influence of the bracelet extends beyond the active wear period and continues to affect cellular electrical activity long after removal.​