About Us

About us

Established to help share the benefits of transfer factor and it’s amazing properties to Australia.

Transfer Factor

Originally discovered in the 1940s–1950s by immunologist, transfer factors were extracted from white blood cells and are also found in sources like colostrum or egg yolk

Transfer factor refers to small immune messenger molecules, primarily low-molecular-weight proteins or peptides produced by T cells and other lymphoid cells in the immune system.
These molecules can transfer antigen-specific cell-mediated immunity from a donor who has developed protection against a particular pathogen or antigen to a recipient who has not yet encountered it.

Free of Harmful Chemicals

Transfer Factor if like giving your body a crash course on harmful diseases.

Benefits

Signaling Agents

Transfer factors work as signaling agents that educate naive immune cells without being antibodies themselves, potentially shifting immune balance or enhancing delayed-type hypersensitivity responses. They carry antigen-specific information that helps T cells and other components of the cell-mediated immune arm “learn” to identify particular threats more quickly. This education can both amplify appropriate responses against pathogens and help regulate overactive immunity in cases of allergy or autoimmunity. Unlike vaccines, which stimulate the body to produce its own immunity, transfer factors provide pre-formed immune memory information. Their exact chemical structure and precise mechanisms continue to be studied, but they are understood to influence cytokine production and lymphocyte activation without triggering full antibody response.

How it works

Knowledge Transfer

These molecules can transfer antigen-specific cell-mediated immunity from a donor who has developed protection against a particular pathogen or antigen to a recipient who has not yet encountered it. In experimental settings, this transfer occurs even when the donor’s white blood cells are disrupted or lysed, demonstrating that the active component is not the whole cell but a soluble extract. The recipient’s immune system then gains the ability to mount a faster and more targeted delayed-type hypersensitivity response or produce relevant lymphokines upon first exposure to that same antigen. This process mimics a form of “immune education,” allowing the recipient to recognize and respond to threats more efficiently without having to experience the full infection. Historically, such transfers were demonstrated in skin tests and other assays showing specific immunity passed between individuals or even across species in some cases.