Although the innate immune system is considered “non-specific,” it does recognize highly conserved,
pathogen-specific molecules known as Pathogen Associated Molecular Patterns (PAMPs). Innate immune
response is often initiated by the binding of PAMPs to select receptors on innate immune cells. Simply
put, PAMPs are natural molecular structures that the innate immune system uses to recognize foreign
pathogens and to trigger innate immune cells to kill the pathogen and to activate the adaptive immune
system.
This process of recognition is mediated through several receptors found on innate immune cells.
Functionally, the immune response can differ depending on what type of immune cell and which receptor
the PAMP is bound to and whether it is bound by an individual receptor or multiple receptors at the same
time. Receptor binding of PAMPs can trigger an immune response that includes engulfing or eating the
pathogen (phagocytosis), sending chemical messages called “cytokines” to other immune cells to
activate them, and killing the pathogen or cancer cell. Glucanol® activates this innate immune cell
function against other disease targets.
The technology used in Immu-Treats® involves natural PAMP structures found in the cell walls of yeast.
These compounds are chains of glucose molecules (polysaccharides or glucans) connected by a very
specific linkage pattern (beta 1,3/1,6 glucan). There has been significant research published on the ability
of PAMPs to induce immune responses. Immu-Treats utilize patented technology surrounding the
production, purification, and characterization of natural PAMP molecules that can be used as immune
modulators. The binding of these molecules to specific receptors on innate immune cells activates select
immune responses that can be used to target various diseases.
This technology includes a number of patented polysaccharide compounds that are well characterized as
to form, size and shape. The research supported by these patents has identified the specific mechanism
of action of these compounds. The significance of the technology is that these compounds each have
unique molecular features that result in their ability to bind to specialized innate immune cell receptors
that can trigger select immune responses. Research has demonstrated that when these compounds are
used in combination with certain drug therapies, they have a synergistic effect leading to significantly
enhanced efficacy. The result is a platform technology with the potential to be used in multiple
combination therapies against multiple disease indications