Insights from Dr. Glen Rein's Study on the EES Hypercharger™

A new study by Dr. Glen Rein, PhD, from the Quantum-Biology Research Laboratory in Colorado has been published. You can view it on our Research page as well as download it below as a PDF.

📄 Overview of the Study

The study investigates the energy transfer capabilities of the EES Hypercharger™ system and its upgrades. It measures the system's impacts on saline solutions and human cheek cells to assess energy transfer and bioenergetic effects.

Key Points:

1. Objective:

   The primary aim is to investigate how energy transfer from the EES systems, including the Hypercharger, affects saline solutions and human cells. Changes in electrical impedance are used as a proxy for energy transfer.

   
   

2. Methods:

   The methodology involved exposing saline solutions and cheek cells to medallions charged with three systems:

• A standard 12-unit EES system

• An old-model Hypercharger

• A new-model Hypercharger



Electrical impedance, which is inversely related to conductivity, was measured before and after exposure using a spectrophotometer.



3. Results:

• Saline Solutions:

• Standard 12-unit EES system: 20% increase in conductivity.

• Old-model Hypercharger: 37% increase.

• New-model Hypercharger: 51% increase.




• Human Cheek Cells:

• Conductivity increased progressively over three 8-hour sessions in a 12-unit system:

• 0% increase after 8 hours

• 12% increase after 16 hours

• 42% increase after 24 hours.




4. Conclusions:

   The study confirms the energy-enhancing effects of both the Hypercharger and the 12-unit EES systems. Notably, the upgraded Hypercharger exhibited stronger effects than the standard system. Furthermore, extended exposure time—beyond 8 hours—is crucial for achieving significant effects, though individual responses and system configurations may vary.

   
   

Importance of Energy Transfer

Understanding energy transfer is essential for various applications. In healthcare, enhancing cellular energy can improve cell functionality and overall well-being. This study brings attention to how innovative technologies like the EES Hypercharger can influence bioenergetics.

Implications for Future Research

Further studies are necessary to explore long-term effects and applications of the EES Hypercharger in clinical settings. Future research could also test variations in different biological environments. Additionally, insights from this study could inform improvements in EES technology.

By leveraging findings from Dr. Rein's study, we can advance our understanding of energy transfer. This knowledge is vital for developing new solutions in health and wellness.

The possibility of harnessing energy transfer technology could lead to groundbreaking advances, not just in personal health, but also in cellular therapies and regenerative medicine.

Energy transfer from devices can potentially accelerate recovery processes and enhance wellness. With this in mind, the study serves as a stepping stone for further exploration.

In conclusion, the ongoing work in this field holds promise. As we look ahead, understanding energy dynamics remains critical. The implications of this research will likely extend far beyond the lab and into everyday life.

For more insights, don't forget to check our Research page.

This study is an exciting step forward in the integration of technology and biology. We anticipate that future developments will reveal even more about the power of energy transfer systems. Users are encouraged to explore the potential these systems offer.

It's an enlightening time as we delve deeper into bioenergetics and their applications. Stay updated as we continue to share new findings and advancements in this fascinating area of research.