How Genes Operate Through Wave Phenomena
Classic genetics is concerned with how our nucleotides in DNA are translated and expressed in proteins; Dr. Gariaev’s work shows how our genes also operate through wave phenomena.
His team employs graphene tubes, generators, scopes and DNA molecules in eggs to generate electromagnetic waves which exchange information.
Transmitting Genetic Information Using Electromagnetic Waves
Genetic information can be transmitted in many ways, including via electromagnetic waves. These waves have the capability of traveling long distances while also interacting with electromagnetic fields produced by cells and the environment – this allows it to travel without physical contact being required between two parties involved.
Researchers have recently discovered that DNA is a type of hologram, suggesting that our genes could store and transmit vast amounts of data. This discovery may help explain why each individual grows and develops differently even though all individuals share identical genes. Furthermore, mutations within genome could result in new diseases or conditions.
Un fascinating discovery related to the holographic nature of DNA is its similarity with human language: our organism’s genetic code contains features resembling spoken languages. This suggests that our genes “speak” an internal code comprised of biological and physical laws; its linguistic aspects could provide clues as to how cells communicate between themselves.
Alongside its linguistic and holographic properties, DNA also displays quantum effects. This suggests that genetic information can be instantly accessed or transmitted across great distances – similarly to how quantum entanglement allows particles of matter to become intertwined over great distances – potentially explaining how our bodies can heal themselves even over vast distances.
Research in wave genetics is ongoing and scientists are exploring many ways that this knowledge can be applied in everyday life. There are ethical considerations involved with manipulating electromagnetic waves generated by our genes; the underlying principle behind wave genetics states that DNA contains an inherent biological intelligence which can guide cell growth and function for better health; tapping this intelligence could reduce disease risks, prevent cancer cases and enhance longevity.
Electromagnetic Waves and the Human Body
Human development is not solely determined by genetic information; electromagnetic waves envelop and penetrate our cells as well. Therefore, gaining an understanding of electromagnetic wave patterns could unlock advances across fields from medical therapies to agricultural innovations – but this powerful technology must be carefully managed in order to avoid misuse and ensure ethical compliance.
Scientific communities have come around to the concept that genetic information can be transmitted as electromagnetic signals. A team of scientists observed that certain bacteria’s DNA sequences can produce low-frequency electromagnetic waves when heavily diluted with an aqueous solution and interact with cell structures to transmit this information encoded within these DNA sequences.
Researchers are beginning to appreciate the significance of electromagnetic waves surrounding and pervading our bodies, particularly as they relate to memory formation. In one experiment, volunteers were asked to memorize a list of words while their brain activity was tracked using magnetic resonance imaging (MRI). Results indicated that activity within their temporal lobe increased when performing this memorization task – suggesting electromagnetic signals are contributing to memory formation as well as epileptic seizures which often originate in this region of their cortex.
Scientists have recently made another significant discovery: Chromatin is an active material, capable of oscillating and vibrating at specific frequencies based on its cellular environment, sending electromagnetic signals through cells to alter gene expression. These findings could shed light on epigenetics – which involves complex interactions between chromosomes and environmental factors that shape how genes are expressed – as it offers insight into its operation.
Wave genetics has far-reaching ramifications for society beyond its contributions to biological research. With wave genetics technology becoming available to us, it will allow us to manipulate genetic information stored in our bodies and develop treatments for diseases like cancer more effectively than before; yet its implementation raises ethical concerns if used by other people – especially developing countries where there may be little protection for individual rights and sovereignty.
Electromagnetic Waves and Cancer
Researchers from deCODE genetics of Reykjavik, Iceland and other international laboratories have discovered several single-letter variants that increase cancer risk, according to findings published today in Nature and Nature Genetics. Their groundbreaking discovery highlights an exciting breakthrough in genetic research: each gene they identified contributes to susceptibility against various forms of cancers in an individual.
These findings are the result of an international collaboration involving scientists from ten European countries and the US using deCODE’s OncoArray genotyping array for cancer genome-wide association studies, unlike previous cancer genome-wide association studies which relied on small sample numbers. With its ability to test hundreds of thousands of individuals at once for variants that increase susceptibility to multiple forms of cancer and genomic regions that contain overlapped segments of DNA that might provide clues into potential causes for this condition, deCODE’s array also identified genomic regions which might contain clues into its underlying causes – something genome-wide association studies could not do.
Research by Gariaev demonstrates that our DNA may function not just molecularly but also through wave phenomena. Traditional genetics focuses on how nucleotides in DNA molecules are translated and eventually synthesized as proteins; his work shows how DNA holograms may have properties similar to holographic projectors – suggesting our DNA might contain four-dimensional blueprints of life.
Study results demonstrated that DNA segments overlapping can act like “molecular tethers” to protect against cancer and could possibly act as a defense mechanism against it. Researchers discovered blind mole rats had an extra copy of one of these sequences tethering to cancer; this finding could aid future therapies against it.
Although research in genetic technologies is exciting, it also presents significant challenges. How can we ensure these new genetic technologies are used responsibly and in ways that benefit society at large? Furthermore, genetic manipulation presents ethical concerns; its promise may include rejuvenating organs or lengthening lifespan – yet ensuring compliance requires creating an ethically sound framework to guide innovation responsibly and ethically compliant research practices.
Electromagnetic Waves and the Brain
Researchers from UT Southwestern have discovered key genes involved in brain waves essential to memory formation. Their discoveries could pave the way to novel treatments for memory loss disorders like Alzheimer’s and other forms of dementia.
Classic genetics involves studying the sequence of nucleotides found in DNA to understand how information is encoded, transcribed, translated and eventually synthesized as proteins. Recent research by physicists with integrity shows that our genome operates not just biochemically but also via wave phenomena – specifically quantum mechanical properties of electromagnetic waves which allow instantaneous transmission from one cell to another.
Scientists have long understood that certain genes control neural oscillations. Yet until now, their exact role was still elusive. To shed some light on this topic, UT Southwestern’s Bradley C. Lega and Genevieve Konopka of neuroscience employed an innovative strategy: they combined data on neural oscillations from volunteers with genomic information gleaned from postmortem brains for postmortem study samples.
Researchers discovered some genes were associated with higher or lower frequencies of these waves. For instance, the WASP gene (WAVE1, WAVE2 or SCAR1) is abundantly expressed among neurons of the brain while moderately expressed among hematopoietic cells, implying it plays an integral part in controlling neuronal rhythms and immune function as well as controlling cancer cell motility – two features which promote invasion and metastasis of cancerous cells.
Other genes studied by the team were linked with different aspects of memory. For instance, genes controlling the speed of RNA synthesis were related to faster or slower brain waves while protein production genes also showed correlations.
The results of the team demonstrate how the complex wave and linguistic properties of DNA can be leveraged to convey biological information more efficiently, potentially leading to safer and more effective biotechnology, including therapies designed to extend lifespans and enhance health. However, harnessing its power requires a framework of responsible innovation and regulation designed to ensure ethical use while mitigating any risks.
