Compositions including different types of transfer factor, methods for making the compositions, and methods of treatment using the compositions

Abstract

A composition for eliciting a T-cell mediated immune response in a subject includes transfer factor from at least two different types of source animals. For example, the composition may include mammalian transfer factor and nonmammalian transfer factor. An example of the composition includes a combination of a colostrum-derived product, which includes the mammalian transfer factor, and an egg-derived product, which includes the nonmammalian transfer factor. Additionally, the egg-derived product may be substantially free of fat. Methods for forming the composition and eliciting T-cell mediated immune responses in subjects that have been treated with the composition are also disclosed.

Description

BACKGROUND OF THE INVENTION [0001] 1. Field of the Invention [0002] The present invention relates generally to compositions which include transfer factor and, more specifically, to compositions which include transfer factor from different types of source animals. The present invention also relates to methods for making compositions that include different types of transfer factor and to methods for eliciting or enhancing a T-cell mediated immune response by the immune system of a subject. [0003] 2. Background of Related Art [0004] Many deadly pathogens are passed to humans from the animal kingdom. For example, monkeys are the sources of the type I human immunodeficiency virus (HIV-I), which causes acquired immune deficiency syndrome (AIDS) and monkeypox, which is similar to smallpox; ground-dwelling mammals are believed to be the source of the Ebola virus; fruit bats and pigs are the source of the Nipah virus; the Hendra virus comes from horses; the virus responsible for the “Hong Ko...

AI Technical Summary

Benefits of technology

[0032] Additionally, the present invention includes a method for reducing the cleaning frequency of capsulation equipment used for capsulating an egg-derived product. That method includes mixing a less fatty or substantially fat free substance, such as a colostrums-derived product, with the egg-derived product before or during introduction of the egg-derived product into the capsulation equipment.

Problems solved by technology

Thus, many newborn mammals cannot immediately elicit a secondary response to a variety of pathogens.

Thus, milk cows are neither a constant source of transfer factor nor an efficient source of transfer factor.

Treatment of pathogenic infections in mammals with avian antibodies may have undesirable results, however, since the immune systems of mammals may respond negatively to the large avian antibody molecules by eliciting an immune response to the antibodies themselves.

Moreover, as mammalian immune systems do not recognize avian antibodies as useful for their abilities to recognize certain pathogens, or the specificities of avian antibodies for antigens of such pathogens, avian antibodies often do not elicit the desired immune responses in mammals.

Consequently, capsulation equipment must be disassembled and cleaned periodically, which may take a considerable amount of time (e.g., up to about 8 hours), resulting in a significant decrease in the productivity of capsulation equipment 20 and, thus, the number of capsules that may be formed therewith.

Thus, processing of whole egg powder to obtain a transfer factor-containing product is somewhat undesirable.

The consequence of such limited exposure may be that the effectiveness of such transfer factor-containing compositions in preventing or treating certain types of infections or conditions is also limited.

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