Under the new theory of fractal representation of natural (human) and genetical languages, using waves genetics one can decipher lexicon of genes and compose algorithms addressing them for any type of programming including treatment and life extension – this is called “wave genetics“.
Basics
Wave genetics assumes that much of our DNA is “junk”, composed mainly of micro RNA’s, long repeat RNA’s, and other nonprotein coding sequences. Unfortunately, this belief is no longer held true as numerous papers have shown. Instead, junk DNA must be disregarded entirely and we must focus on the 98% that does indeed code for proteins in our genomes.
Wave Genetics research led by Drs Peter Gariaev and Maslov in Russia has been brought to a halt by heavy handed intervention from “skeptics” within the Russian Academy of Sciences. This is unfortunate as this work could provide groundbreaking technologies for healing body ailments without surgery and prolonging lifespan; furthermore it could give us greater insights into our genetic capabilities so they may work for rather than against us.
Genetics
Wave genetic theory proposes that our natural DNA system can transfer genetic information on a non-material, wave/field level. This is accomplished without using antiquated recombinant DNA and stem cell culturing techniques; experiments have been performed to test its implications, such as increasing life expectancy or regeneration damaged pancreas cells; therefore this should be seen as an approach open for research by all scientists, also referred to as DNA’s “speech”.
Reproductive Biology
Wave genetics theory has demonstrated through well-designed and repeatable experiments that it is possible to reprogram one’s DNA using resonant waves beamed at it, thus enabling regeneration of vital internal organs and extension of life expectancy without the need for antiquated, dangerous, and expensive “recombinant DNA” methods or stem cell culturing. More advanced experimentation using this theory has demonstrated how its language – the individual gene-code itself – can be deciphered using speech analysis techniques – with recent developments like its use in regeneration technology of damaged pancreas tissue regeneration!
Embryology
Embryology, or embryogenesis, is the study of how fertilized eggs develop into human beings over eight weeks after fertilization. This complicated process includes the transformation of single-celled zygote to multilayered three dimensional embryo with primitive functioning organs and multi layered body systems; furthermore it also assists scientists in understanding relationships among various body systems as well as identify causes for congenital malformations in newborns as well as improving prenatal treatment to reduce miscarriages among women.
The germinal phase is the initial week of human embryonic development. At this stage, an egg released by ovulation meets with sperm carried via semen to fertilize an egg and form what is known as an implant (implantation), which then grows into a blastula with one end developing into what is called a blastopore or blastopodium; if an anus forms from it then that animal becomes known as a protostome and vice versa for deuterostome development.
At around two weeks after fertilization, cells in a blastula begin to differentiate into differentiated tissues. Cells that comprise an embryo’s outer layers, known as mesoderm cells, and those which compose its middle and inner layers – endoderm cells – give rise to tissues like bone, cartilage and muscle while mesoderm cells provide internal organs like blood and glands.
Starting around week 3, an embryo begins to progress toward becoming a fetus. At this point, its development becomes evident: an embryo forms its primitive brain called the neural tube, as well as developing tail and limb buds as well as tail with an swollen cranial section to form arms and legs as well as head features like arms and legs.
At four weeks gestation, a fetus begins to mature as its organs develop further. For instance, embryology provides insight into how pancreas works as a crucial endocrine gland that produces insulin for regulating sugar metabolism in the body and may assist researchers in finding methods of regrowing damaged pancreases in adult patients.