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Technoprogressive? BioConservative? Huh? Quick overview of biopolitical points of view ![]()
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This theory below was developed by Dr. Sigwin Raska, Phd Chem., assistant to Nobel prise winner Ruzicka in 1939, MA Physiology in Canada, MD from Chicago.
The following is based on a discussion I had with Sigwin in the early 1980’s regarding cellular senescence regarding an experiment that myself and Prof. John Armstrong at U of Ottawa developed and sent to David Suzuki; the results of the experiment disproved the pervailing crossover theory as the cells method of eliminating aging in germ-line cells.
Sigwin’s theory on cellular senescence:
The cell is a biochemical-electromagnetic machine. This machine manufactures complex molecular structures. It is not a perfect system, occasionally a malformed protein is produced. Early on in a cells life these mal-formed proteins, due to their small numbers have minimal effect on the cells normal functions. But as the cell grows older these malformed proteins accumulate; their collective accumulation effects the ability of the cell to function, the cell starts slowing down in its ability to complete its normal functions.
In the Harvard research, on the use of telemase to eliminate cellular senescence in mice, it was noted in the article by Harvard Science that there was a potential for cancer to develop in humans if telemase was employed. Raska’s hypothesis suggests that the accumulation of malformed proteins may act in a similar manner to the oncogenes that also produce malformed proteins, which inhibit cellular senescence and trigger a tissue repair mode [cancer]. By eliminating these malformed proteins in human cells, the successful Harvard experiment on mice could well work on humans.
Certain cells don’t age they are embryonic cells prior to the formation of the next germ line/reproductive cells. These cells produce a large number of protolytic enzymes that re-metabolize the malformed proteins. This is an essential function: if their was aging in the reproductive cells it would accumulate in each successive generation.
After the reproductive cells are produced this function [cleaning the cell factory] becomes a disadvantage in the need to speedily fabricate the biggest, strongest, fastest, smartest animal. Once the animal reaches or nears its maximum potential it can reproduce off-spring, as such there is no need to clean the cells. Recycling the mal-formed proteins has not evolved, yet.
[Cancer cells, due to an internal malfunction that inhibit inter-cellular communication [Lowenstein] enter a tissue repair mode and produce protolytic enzymes, these enzymes, originally designed to break down the surrounding dead tissue, also break down the malformed proteins, and turn an aging cell into a super invasive cell.]
Reduction of telemeres may limit a cells reproductive capacity but they do not seem to reduce the cells capacity to do all of its other functions.
Experimentation
Find those sections of the DNA in early embryonic cell that produce protoytic enzymes. Compare these sites and actions of the protolytic enzymes produced by cancer cells and those produced by early embryonic cells.
Find a way of stimulating the DNA in differentiated cells to produce protolytic enzymes. Study the effect of these enzymes at different saturation levels..