About Smart Cell Signal™
More Effective but Safer than Conventional Medicines.
All living cells sense and respond to their environment by means of mechanisms known as cell signaling pathways. These mechanisms are part of a complex system of communications that govern basic cellular activities and coordinate the actions of cells.
In multicellular organisms, every cell comprising every tissue, organ, or organ system, constantly strives to maintain homeostasis in the face of destabilizing influences. Whether it is external stimuli such as exposure to chemicals, changes in oxygen tension, or natural alterations in pH or adjustments to osmolality due to normal cellular metabolism, each cell in the body is equipped with the molecular machinery required to sense these environmental changes and respond to them.
The responsiveness of a cell to its environment relies on detection systems that sense changes outside the cell and are coupled to signal transduction pathways that generate appropriate cellular responses.
At a cost of many millions of dollars, increasing numbers of researchers are continuing to investigate cell-to-cell signaling and the intracellular response to signaling.
Cell signaling refers to the process by which extracellular substances produce an intracellular response. This is an essential and widespread biological phenomenon by which hormones, neurotransmitters, and other agents regulate cellular function. In some cases, the natural agent inducing the response is present on the surface of a nearby cell, or is present in the extracellular matrix on which cells reside.
Most drugs exert their effects by affecting signaling pathways. Thus, the study of signal transduction mechanisms is a major focus in many fields of biomedical research, including pharmacology, toxicology, pharmaceutical sciences, immunology, biochemistry, and pathology. Significantly, many of the recent breakthroughs in drug development stem from basic studies on signaling molecules.
Warren Ward, of EquusFirst Ltd (UK), set out to investigate the creation of an exogenous signaling pathway as a therapeutic method of cell signaling via epithelial surfaces and thus activating total body cellular signaling. This therapeutic method is particularly useful for chronic conditions where the physiology has moved away from the normal natural interactive controls or homeostasis, e.g. essential hypertension. There are five great advantages of this method of medication:
Molecules can be used to affect cell signaling without the molecules having to be dissolved in body fluids.
Molecules can be used to reinstate normal homeostasis of humans and animals with chronic conditions, in contrast to conventional drugs which often interfere with normal physiological processes.
Molecules which are found naturally in the body can be used to beneficially affect cell signaling pathways.
Since, in contrast to conventional drugs, there is no dissolution or elimination, the molecules can be carefully targeted to avoid all side effects, creating a high level of safety.
Molecules, including established therapeutic molecules, can be used to affect cell signaling pathways more effectively but much more safely than conventional drugs.
Warren reasoned that the creation of an exogenous signaling pathway would require both the presence of introduced molecules in proximity to the epithelial surfaces, and transient presentation of such chemicals in microscopic quantities, or apparent microscopic quantities, to the cells of the epithelial surfaces. Induced changes in their immediate environment could be calculated to elicit a response by the epithelial cells.