Nutrient compositions and methods for enhanced effectiveness of the immune system

Abstract

The invention provides a nutrient composition for augmenting immune strength or physiological detoxification. The nutrient composition consists of an optimal combination of an effective amount of at least one vitamin antioxidant, at least one mineral antioxidant and a highly saturable amount of at least three high potency antioxidants. The at least one vitamin antioxidant can be vitamin C, bioflavonoid complex, vitamin E, vitamin B6 or beta-carotene and the at least one mineral antioxidant can be zinc or selenium. The at least three high potency antioxidants can be alpha lipoic acid, acetyl L-carnitine, N-acetyl-cysteine, co-enzyme Q10 or glutathione. Also provided is a nutrient composition for augmenting immune strength or physiological detoxification that consists of an optimal combination of an effective amount of at least three vitamin antioxidants, at least two mineral antioxidants and a highly saturable amount of at least three high potency antioxidants. Further provided is a method of stimulating immune system function or a method of augmenting a therapeutic treatment of a disease. The method consists of administering to an individual a nutrient composition of the invention one or more times a day over a period of about 5-7 weeks, the immune system function being stimulated to result in an increase of CD4+ cells of at least about 15% compared to pre-administration levels. A method of stimulating a physiological detoxification function of an individual or a method of augmenting a therapeutic treatment of a disease is also provided. The method consists of administering to an individual a nutrient composition of the invention one or more times a day over a period of about 5-7 weeks, the physiological detoxification function being stimulated to result in a decrease of one or more free radical markers by about 20% compared to pre-administration levels.

Description

[0001] This invention relates generally to promoting the healing process of physiological disorders or diseases and, more specifically to nutrient compositions that promote the effectiveness or efficiency of the immune system. [0002] Physiological disorders and diseases affect millions of individuals each year. Severity of such pathological conditions can range from mild discomfort, to severe and permanent debilitating state, to a life-ending terminal disease. Treatments have continually strived to achieve cures that will restore an affected individual to a normal physiological state. For many disorders or diseases, medical treatments are limited to reduction in severity of symptoms or improvement in one's quality of living. Therefore, improvement in the efficacy of an available treatment continues to be a area of medical concern. [0003] The diagnosis and treatment of human diseases similarly continues to be a major area of social concern. As long as there continues to be diseases t...

AI Technical Summary

Benefits of technology

[0003] The diagnosis and treatment of human diseases similarly continues to be a major area of social concern. As long as there continues to be diseases that affect individuals there will be an effort to understand the cause of such diseases as well as efforts to diagnose and treat such diseases. Preservation of life and reducing the burden on society are two motivating factors that encourage the time and expenditure invested into scientific discovery and development processes. Applying the results of these scientific process to the medical field has led to surprising advancements in medicine which have improved both the quality of life and the life-span of affected individuals.

Problems solved by technology

For many disorders or diseases, medical treatments are limited to reduction in severity of symptoms or improvement in one's quality of living.

However significant in both scientific and medical contribution to their respective fields, the progression of advancements has been slow and painstaking, generally resulting from step-wise trial and error hypothesis-driven research.

Moreover, with each advancement there can be cumulative progression in the overall scientific understanding of a problem but there is no guarantee that the threshold needed to translate a discovery into a practical medical application has been achieved.

Further complicating the progression of scientific advancements and their practical application can result from technical limitations in the available methodology.

In addition, even the most beneficial therapeutics available for a particular disorder or disease can result in undesirable side effects.

For example, cancer chemotherapies and acquired immune deficiency syndrome (AIDS) treatments cause severe toxic effects due to their lack of specificity or to the occurrence of toxic by-product reactions.

Additionally, many times an individual will become resistant to therapeutics during a treatment regime.

Predictability has been hampered in part because of the complexity of the human physiological system and the lack of a complete understanding of physiological mechanisms.

For example, the advent of monoclonal antibodies and recombinant DNA technology, each having been hailed as technology that would revolutionize medicine and provide the ability to design highly specific therapeutics for diseases, has yielded less than promising results.

This long delay has resulted from the development of complementary technology that renders the antibodies less toxic to the recipient.

Therefore, while beneficial in treating and controlling the impact of physiological disorders and diseases, advances in therapeutic medicines still fall short of providing the sought after cure or the ability to deliver a desired treatment regime to maintain a consistent improvement in quality of living.

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