We present an experimental laser system designed for research in wave-based genetic phenomena and related areas of physics.
The system employs a specially configured Helium–Neon laser operating at a wavelength of 632.8 nanometers. It is used to read and transfer quantum-level information from living cells or biological macromolecules. The laser functions through the effect of modulated broadband electromagnetic radiation (MBER), which carries quantum information obtained from a scanned sample. This information is initially recorded through polarization modulation (spin states) of probing photons, using a configuration in which the laser beam is returned to its resonator.
An alternative designation for this method is Polarization Laser Radio-Wave Spectroscopy (PLR Spectroscopy). This approach was first introduced by Dr. Georgy Tertyshny and Peter Gariaev.
Principle of Operation
In our laboratory, this laser system has been significantly modernized, allowing real-time operation via a computer equipped with specialized software. This upgrade greatly simplifies the process of generating sound files based on Garyaev technology.
The operator can observe spectral graphs and record the resulting spectra from various biological materials or cells directly into WAV audio format in real time.
When a cuvette containing liquid samples or diluted substances is placed inside the external laser cavity, the scanning laser beam passes through the cuvette. During this process, the beam is modulated by nano-scale quantum vibrations of biological macromolecules present in the sample.
The resulting signal is converted into modulated broadband electromagnetic radiation carrying the quantum information of the scanned substance. This signal is then transformed into audio waves in WAV format in real time during the operation of the laser system. All adjustments and recordings can be conveniently performed via a computer interface.
The recorded spectra are dynamic and demonstrate properties associated with quantum nonlocality, expressed through polarization (spin-state) modulation of the laser beam during the registration of nano-scale vibrations of biomacromolecules. Based on this principle, dynamic MBER spectra can be recorded for virtually any scanned substance.
Experimental Applications
This technology enables experiments similar to those conducted by Peter Gariaev involving the transfer of genetic information. In such experiments, a recorded quantum MBER spectrum is converted into WAV audio format and then reproduced through a standard speaker directed at a container with pure water and primers. This water can subsequently be used for further amplification using DNA polymerase, enabling experimental research in wave-based genetics.
Additionally, the system allows the transfer of properties from various substances or medications into water, opening a potential new direction in experimental medicine through quantum audio-based methods.
The original laser concept was developed by Russian physicist Georgy Tertyshny, and our team has substantially enhanced its capabilities. Using this system, any liquid substance placed in a cuvette can be scanned. The resulting spectra can be recorded in WAV format and played back on any standard audio device.
When a person listens to such audio spectra, the quantum structural information of the scanned material is conveyed in sound form, offering a non-invasive approach without the chemical side effects typically associated with medications.
Demonstrated Results
Using this setup, experiments involving the transfer of DNA information were conducted. In one case, a DNA sequence consisting of 500 nucleotides was scanned using the laser system. The resulting quantum vibration spectrum was recorded, converted into WAV audio format, and then played through a standard speaker directed at a container with pure water and primers.
Following this, a rapid PCR reaction was performed, which demonstrated the successful transfer of information corresponding to the original 500-nucleotide DNA sequence via the recorded MBER audio spectrum.
This unique laser system has vast potential and represents a powerful tool for future scientific exploration. Thank you for your attention.
The results of the experiments:
TRANSFER BIOACTIVE INFORMATION BY SOUND
Methods amplification plot of synthetic DNA with a length of 547 BP
Production history:
History and archive of Adaris Lab production
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