The present invention provides novel pharmaceutical formulations comprising derivatives of NDGA, including M.sub.4N (tetra-0-methyl nordihydroguaiaretic acid) and temozolomide and their use in the inhibition and treatment of neoplastic diseases, including glioblastoma multiforme, lung and other cancers.

The present invention provides novel pharmaceutical formulations comprising derivatives of NDGA, including M.sub.4N (tetra-0-methyl nordihydroguaiaretic acid) and temozolomide and their use in the inhibition and treatment of neoplastic diseases, including glioblastoma multiforme, lung and other cancers.

The present invention provides novel pharmaceutical formulations comprising derivatives of NDGA, including M.sub.4N (tetra-0-methyl nordihydroguaiaretic acid) and temozolomide and their use in the inhibition and treatment of neoplastic diseases, including glioblastoma multiforme, lung and other cancers.

Disclosed herein are methods and compositions for enhancing an immune response to a solid tumor in a subject. In some embodiments, a method comprises: (a) administering to the subject a hypoxia-activated bioreductive agent (HABA); (b) inducing hypoxia by (i) administering a hypoxia-inducing agent to the subject or (ii) embolizing one or more blood vessels supplying the solid tumor; and (c) administering an immune checkpoint inhibitor prior to, simultaneously with, or subsequent to step (b) in an amount effective to enhance an immune response to the solid tumor, as compared to an immune response in the absence of the immune checkpoint inhibitor. Kits for use in the disclosed methods are also provided.

Disclosed herein are methods and compositions for enhancing an immune response to a solid tumor in a subject. In some embodiments, a method comprises: (a) administering to the subject a hypoxia-activated bioreductive agent (HABA); (b) inducing hypoxia by (i) administering a hypoxia-inducing agent to the subject or (ii) embolizing one or more blood vessels supplying the solid tumor; and (c) administering an immune checkpoint inhibitor prior to, simultaneously with, or subsequent to step (b) in an amount effective to enhance an immune response to the solid tumor, as compared to an immune response in the absence of the immune checkpoint inhibitor. Kits for use in the disclosed methods are also provided.

Disclosed herein are methods and compositions for enhancing an immune response to a solid tumor in a subject. In some embodiments, a method comprises: (a) administering to the subject a hypoxia-activated bioreductive agent (HABA); (b) inducing hypoxia by (i) administering a hypoxia-inducing agent to the subject or (ii) embolizing one or more blood vessels supplying the solid tumor; and (c) administering an immune checkpoint inhibitor prior to, simultaneously with, or subsequent to step (b) in an amount effective to enhance an immune response to the solid tumor, as compared to an immune response in the absence of the immune checkpoint inhibitor. Kits for use in the disclosed methods are also provided.

Compositions containing egg yolk powder and a NAD+ precursor and/or pterostilbene and/or an agent promoting mitochondrial rejuvenation for use in enhancing overall health and longevity in mammals are provided.

Compositions containing egg yolk powder and a NAD+ precursor and/or pterostilbene and/or an agent promoting mitochondrial rejuvenation for use in enhancing overall health and longevity in mammals are provided.

Provided are orthopedic implants and systems and kits containing orthopedic implants that include biodegradable polymer thin films containing an antimicrobial agent, wherein the implants produce an effective zone of inhibition around a periphery of the surface of the implant and do not produce a loss of release torque between interlocking implant components.

Provided are orthopedic implants and systems and kits containing orthopedic implants that include biodegradable polymer thin films containing an antimicrobial agent, wherein the implants produce an effective zone of inhibition around a periphery of the surface of the implant and do not produce a loss of release torque between interlocking implant components.