More than thirty years ago, the German doctor Dr. Struggling with problems that are still not being addressed by mainstream medicine today, Hans Neiper looked to nature for a way to deal with any and all types of inflammation.
Inflammation is anything in the body that shouldn't be there. Any "non-living tissue". And quite simply, it is anything that causes pain. Blockages, such as in the head or chest from mucus such as catarrh, sinus or bronchial problems, asthma, emphysema or industrially induced problems including asbestos is.
Things like blood clots, prostate problems, arthritis, ulcers, and tons of other problems your doctor will tell you can't be helped are all caused by inflammation.
Serapes is an enzyme that the silkworm uses to dissolve its cocoon. Dr. Neiper realized that if a silkworm, when it turns from a worm into a moth, and it does so in a very short time, it must have something that dissolves the "non-living tissue" because the cocoon is a hard structure of dead tissue.
Dr. Neiper isolated the enzyme, gave it to his patients, and achieved astonishing results, very quickly.
He gave it to one patient for an arm amputation due to a blocked artery. It released the blockage and the man held his hand. He also reported that Serrapeptase dissolved blood clots and caused varicose veins to shrink or shrink.
To achieve the massive amounts needed in today's world, Serapes are now naturally processed commercially by fermentation. Histological studies have revealed the potent anti-inflammatory effects of this naturally occurring enzyme.
A known possible benefit may be pain relief; solving lung problems; eye problems; ENT problems (ear-nose-throat); trauma; inflammation of any kind; cardiovascular problems and arthritis is very important.
No harmful side effects have been reported in the 25 years since it was prescribed by German doctors.
Serapes can and does solve many problems that doctors tell us are unsolvable.
However, we must remember that many of the problems we experience with our health are often closely related to our diet.
If we eat unhealthy food, we will get unhealthy health. Look at the labels when shopping at the supermarket. How many E numbers or things that are clearly not proper, natural foods are in the package?
Also, everything that is in the form of so-called "sugar-free" always contains aspartame and other things that are harmful to our health. So try to keep a good diet.
Alternative remedies, many of which have stood the test of time, in some cases for hundreds of years, are finally offering hope to many people
Serapes is a recent addition to the list, having only been "discovered" 35 or so years ago. But it is one that works for many people.
Natural enzymes are often not optimal for practical applications. Enzyme properties such as environmental tolerance (e.g., to suboptimal temperature and pH), bioelectric point, substrate specificity, reaction mechanism, and molecular stability need to be modified, improved, or modified to better meet practical challenges [18]. Enzyme engineering is a powerful tool to enable these approaches, based primarily on amino acid sequence optimization. Currently, it is still technically difficult to design an artificial enzyme in vitro. Therefore, a natural enzyme close to the final target form must first be selected for engineering. A modified amino acid sequence can potentially lead to a minor or major structural change that subsequently induces desirable properties. New catalytic properties obtained in this way can be introduced into biological cells, especially microorganisms, for the purposes of genetic and metabolic engineering [5].
A typical enzymatic reaction has three major steps occurring in the active site of the enzyme, namely substrate binding, biochemical conversion, and product release. The efficiency of each step can potentially be affected by the amino acids involved in the catalytic mechanism. In theory, these amino acids can be identified if the three-dimensional structure of the enzyme is available, whereupon they become rational targets for manipulation. The 20 natural amino acids offer different molecular properties such as size, charge, acidity (or basicity), hydrophilicity (or hydrophobicity), nucleophilic and selectivity. Strategies for manipulating amino acid residues near the active site can alter the local enzyme structure and reaction environment and subsequently affect substrate specificity, binding, and selectivity. On the other hand, reaction chemistry can be designed based on the manipulation of amino acids with the general observation that proteins with similar composition, but different catalytic groups can catalyze very different chemical reactions. Catalytic groups can be designed to possibly develop a new catalytic mechanism, recognize a new substrate (i.e., ... Conversion to a new product), increase the number of turnovers, and lower the activation energy.
You must be logged in to post a comment.