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Metabolic Disease
By employing methods that mimic the neurobiochemical physiology responsible for the seasonal shift from the obese, insulin resistant condition to the lean, insulin sensitive state common among vertebrate species in the wild, it is possible to develop new treatment strategies for human metabolic diseases such as type 2 diabetes, obesity, and metabolic syndrome. Changes in the circadian phase relations of distinct neuroendocrine rhythms drive the annual cycle of metabolism among vertebrates in the wild.
Consequently, it is not merely supplying the neuroendocrine factors of the “lean” season that produces leanness but rather supplying the circadian neuroendocrine blueprint that accomplishes this shift. Methods aimed at doing so, can function to alleviate and induce the obese, insulin resistant condition as is the case in the wild. We are developing different ways of applying this science to provide effective and practical means of treating human metabolic diseases.
Immune Disorders
Immuno-suppression and autoimmune diseases are both associated with derangements in the circadian neuroendocrine axis. Once again, it is the critical role of the brain-neuroendocrine axis to regulate and orchestrate the complex immunological interactions that occur at the cellular and tissue levels for the production of an organismal level immunocompetence.
Rather than focusing on specific immuno-modulators such chemokines or lymphkines to boost immuno-reactivity, we focus on resetting circadian neuroendocrine events that organize overall global immunophysiology to treat immuno-suppressed states. Similarly, autoimmune disorders with genetic components manifest as alterations in the neuroendocrine axis which in turn potentiate the underlying disorder.
Consequently, autoimmune diseases may be improved by appropriately resetting specific aberrations in the circadian neuroendocrine axis. Our interventions are not just pharmaceutical compounds but rather therapeutic treatment regimens employing such compounds in a particular manner to reprogram the master control centers in the brain for the production of whole-body immunological status.