Testing of Two Laser Setups: Adaris laser vs Petr Garyaev laser LGN-303 for experiments in Wave Genetics
Radio-Wave Polarization Laser Spectroscopy. This video demonstrates the operating modes of a laser setup and compares the quality of the generated dr Gariaev audio matrices between the “Adaris-Lab” laser and the LGN-303 laser.
Three operating modes of the laser setup—developed in the “Adaris” laboratory using modern components—were tested, yielding clean MBER spectra. For the first time, a direct correlation between laser scanning and molecular processes was demonstrated.
The real-time operation of the “Adaris-Lab” laser is demonstrated in detail across three different modes. The setup exhibits high-quality spectra and a clean audio signal of the MBER matrices.
The first mode involves scanning a solute trehalose inside a cuvette. This clearly illustrates a direct connection with the substance being scanned. When the scanning laser beam is blocked, the spectrum changes immediately, making it evident that the scanning process has been interrupted. Crucially, there are no extraneous electromagnetic interferences generated by the laser setup itself: in “silent” mode, when the laser beam is not scanning anything, the signal is not polluted by external electromagnetic noise, unlike the old LGN-303 laser.
Next, a test is conducted that provides the first visual proof of a connection between the laser beam scanning and biomolecules.
This is a test of the induced acceleration of molecular motion within a cuvette, where I deliberately accelerate the movement of molecules in an aqueous medium. Correspondingly, we observe a drastic change on the spectrum. This serves as direct proof that it is the substance’s molecules being scanned, rather than random radio interference.
Following this, an operating mode where the laser setup scans air molecules is tested. I then deliberately alter the composition of the air molecules by increasing their quantity and mass within the scanning zone. At that exact moment, a distinct change appears on the spectrum. This provides yet another piece of evidence that the MBER spectra generated by the “Adaris-Lab” laser setup are genuinely scanning molecules in real time, with the spectrum being converted into sound via a modulation commonly referred to as a “matrix.”
Next, we examine the third testing mode—the “drop mode”—where the laser beam scans a droplet. During the scan, I intentionally change the droplet’s shape, inducing a displacement of the molecules. Once again, we observe this on the spectrum in real time. This yields a third piece of proof that the “Adaris-Lab” laser is indeed scanning molecules in real time.
Following this, the original LGN-303 laser is tested. It is important to understand here that the LGN-303 is barely capable of generating MBER spectra. The main issue lies in the quality of the spectrum generation: the ratio of useful signal to electromagnetic noise is 30% to 70%, with that 70% consisting of noise generated by the internal components of the laser setup itself. In other words, Gariaev’s matrices contain 70% noise unrelated to the scanning of actual molecules, and only 30% of useful information.
The useful signal drowns in this electromagnetic noise. This is clearly demonstrated when I block the scanning laser beam, causing the laser to stop scanning: there should be silence on the air! Yet, instead of silence, we hear additional electromagnetic interference generated by the internal components of the laser setup itself.
This is where the “Adaris-Lab” laser setup enters the scene—fully reassembled and recreated from scratch using modern components. Under the expert guidance of physicist G. Tertyshny from P. Gariaev’s group, we managed to build a laser setup capable of producing extremely high-quality MBER spectra (matrices) with audio completely free of extraneous electromagnetic interference! The direct proof of this is that when the scanning beam is blocked and the laser stops scanning molecules, dead silence falls over the air—there are no extraneous interferences. This means that the previous signal you heard while the setup was scanning molecules was a CLEAN signal originating from the molecules themselves! Consequently, the polarized quantum information of the molecules themselves is preserved within the sound.
The “Adaris-Lab” laser setup delivers high-quality spectra and a clean audio signal for MBER matrices.
This allows us to conduct further experiments in the field of wave genetics, elevating our work to a new level of quality and results. Interesting findings obtained in this area are already available in the “Experiments” section.