Tooth Regeneration Using Wave Genetics: A Case Report of Laser-Assisted Quantum Genetic Reprogramming in a Dog
Authors: Peter P. Gariaev, G.P. Vlasov, R.A. Poltavtseva, L.L. Voloshin, E.A. Leonova-Gariaeva
Published in: DNA Decipher Journal | November 2018 | Volume 8 | Issue 3 | pp. 162–165
Abstract
A preliminary study demonstrating tooth regeneration in a dog through wave genetics is reported. Regeneration was carried out by a special laser technology based on an expanded understanding of the principles of genetic coding. One of such principles predicts the existence of quantum equivalents of working genes.
Multipotent mesenchymal stromal cells (MMSCs) derived from human adipose tissue were pre-treated with human tooth rudiment quantum genetic information (MBER) and transplanted into the area of a test dog where the tooth had been removed. The control area — where the tooth was also removed — was left untreated.
After 9 months, complete regeneration of the tooth was observed in the test area. In the control area, no regeneration occurred.
Keywords: quantum regeneration, quantum equivalent, genes, stem cells, reprogramming, wave genetics, MBER, laser.
1. Introduction
The case reported here is devoted to an attempt to regenerate a tooth in a test dog using the method of linguistic-wave genetics. This work is preliminary and will be continued. A similar experimental study on the diabetic foot was carried out by the same research group previously.
The method is based on an expanded understanding of the principles of genetic coding. One of the central principles of this approach predicts the existence of quantum equivalents of working genes — a concept that has been confirmed experimentally by the authors in prior published work.
The core idea is that genetic information can be read from biological tissue using a specially configured laser, converted into modulated broadband electromagnetic radiation (MBER), and used to reprogram stem cells — directing their differentiation toward a specific tissue type, in this case dental tissue.
2. Materials and Methods
2.1 Preparation of Multipotent Mesenchymal Stromal Cells (MMSCs)
Multipotent mesenchymal stromal cells derived from human adipose tissue were used for transplantation. The preparation protocol was as follows:
Cellular suspension from adipose tissue was diluted with Dulbecco’s Phosphate Buffered Saline (DPBS, “Gibco”) at a 1:2 ratio, then layered on a density gradient of Histopaque 1.077 (“Sigma”) and centrifuged for 30 minutes at 600g.
Interfacial mononuclear rings were collected into centrifugal test tubes (“Corning”) and washed by centrifugation in excess DPBS. The resulting cell sediment was resuspended in culture medium and placed in culture flasks (“Corning”, 25 cm²), then transferred to a 37 °C constant incubator with 5% CO₂.
Culture medium composition:
- DMEM/F12 base
- 25 mM HEPES
- 2 mM L-glutamine
- 2 mM sodium pyruvate
- 100 U/ml penicillin
- 100 µg/ml streptomycin
- 10% fetal bovine serum (all reagents by “Gibco”)
The medium containing non-adherent cells was removed. Cells attached to the plastic bottom of the culture flask were gently washed with DPBS and the medium was completely replaced. Subsequent medium replacements were carried out every 2–3 days; cultures were examined using phase-contrast microscopy.
Upon reaching a subconfluent state, cells were trypsinized with Trypsin-EDTA solution (“Gibco”) and passaged at 1:2. For the experiment, a passage 3 culture was used. 1 million cells were placed in the tooth socket.
2.2 Laser System and MBER Generation
A frequency-stabilized helium-neon laser with two orthogonal optical modes was used to transfer quantum genetic information. The laser read genetic information from the rudiment of a human tooth.
This information was spontaneously transformed into modulated broadband electromagnetic radiation (MBER) carrying the same information, initially recorded as polarization modulation (spin states) of probing photons in the mode of returning the laser beam back to its resonator.
[IMAGE 1 — Schematic diagram of the frequency-stabilized helium-neon laser system used for reading quantum genetic information from the human tooth rudiment and generating MBER]
Specifically, MBER was synthesized from the surgically removed rudiment of a human molar. The MMSCs extracted from human adipose tissue were then irradiated with the synthesized MBER and grown to the required concentration for implantation.
2.3 Surgical Protocol
The dog’s teeth were removed behind the fangs on both the left and right sides of the jaw.
One week later:
- Right side (test area): Multipotent mesenchymal stromal cells, pre-treated with MBER of the human tooth rudiment, were implanted into the extraction site
- Left side (control area): No cell implantation was performed
The test dog was handled in accordance with accepted standards for scientific research in Russia.
3. Results
Control Area — Left Upper Jaw
In the control area, where the tooth was removed but no MMSCs were implanted, no regeneration of the tooth was observed throughout the observation period.
[IMAGE 2 — Figure 1A. Control: Left upper jaw of the test dog. The tooth was removed, no multipotent mesenchymal stem cells (MMSCs) were implanted. No tooth regeneration is visible.]
Test Area — Right Upper Jaw
In the test area, where the tooth was removed and MMSCs pre-treated with MBER were implanted, complete regeneration of the tooth was observed after 9 months (initial signs of regeneration were documented at 90 days).
[IMAGE 3 — Figure 1B. Test: Right upper jaw of the test dog. The tooth was removed and multipotent mesenchymal stem cells (MMSCs) pre-treated with MBER were implanted. Regeneration of teeth is visible after 90 days.]
The contrast between the control and test areas provides direct visual and clinical confirmation of the regenerative effect induced by the MBER-reprogrammed stem cells.
4. Discussion
The results of this preliminary study raise several important points for further investigation.
Human-to-canine genetic information transfer. In this experiment, MMSCs of human origin were reprogrammed using quantum genetic information from a human tooth rudiment, then implanted into a dog. The successful regeneration suggests a degree of cross-species compatibility at the level of quantum genetic information that warrants further study. How human genetic information interacts with canine genetic information will be a key focus of continued research.
The role of MBER in stem cell reprogramming. The MBER irradiation appears to have directed the differentiation of multipotent mesenchymal stromal cells specifically toward dental tissue. This is consistent with the broader theory of linguistic-wave genetics, which holds that quantum equivalents of working genes can carry and transmit functional genetic instructions without direct biochemical contact.
Comparison with standard regenerative approaches. Conventional approaches to tooth regeneration rely on complex scaffolding systems, growth factor cocktails, and prolonged in vitro culture. The approach described here achieves comparable or superior outcomes through a fundamentally different mechanism — information transfer rather than biochemical manipulation.
PCR confirmation of quantum genetic equivalents. Prior work by the authors demonstrated PCR amplification of phantom DNA recorded as a potential quantum equivalent of material DNA, providing experimental support for the theoretical basis of the MBER approach.
5. Conclusion
This paper reports a preliminary study demonstrating tooth regeneration in a dog using human quantum genetic information delivered via MBER laser technology.
Key findings:
- Complete tooth regeneration was achieved in the test area after 9 months
- No regeneration occurred in the untreated control area
- The MBER irradiation of MMSCs prior to implantation appears to be the decisive factor in directing tissue regeneration
- Cross-species application of quantum genetic information (human to dog) produced a positive result
The work will be repeated with expanded controls, and the mechanism by which human genetic information interacts with canine genetic information will be explored in detail.
This study contributes to the growing body of evidence supporting the concept of quantum equivalents of working genes and the practical applicability of linguistic-wave genetics in regenerative medicine.
References
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