The disclosure provides variants of nicotine oxidoreductase and methods to select such variants that are unexpectedly active in the catabolic destruction of nicotine by oxidation using oxygen as electron acceptor, and catabolically active fragments thereof. Also disclosed are compositions comprising the CycN cytochrome c protein and at least one of the variant nicotine oxidoreductase holoenzymes, the fragments thereof, or a naturally occurring nicotine oxidoreductase, as well as fusion proteins comprising catalytically active nicotine oxidoreductase fragments or holoenzymes and CycN cytochrome c fragments or holoenzymes. Additionally, variants of L-6-hydroxynicotine oxidase, or catalytically active fragments thereof, are provided. Further disclosed are polynucleotides encoding such proteins, vectors comprising such polynucleotides, and host cells comprising such polynucleotides or vectors. Also provided are methods of using any of the disclosed compositions or formulations to treat nicotine dependence or reduce the risk of relapse to nicotine dependence.

The disclosure provides variants of nicotine oxidoreductase and methods to select such variants that are unexpectedly active in the catabolic destruction of nicotine by oxidation using oxygen as electron acceptor, and catabolically active fragments thereof. Also disclosed are compositions comprising the CycN cytochrome c protein and at least one of the variant nicotine oxidoreductase holoenzymes, the fragments thereof, or a naturally occurring nicotine oxidoreductase, as well as fusion proteins comprising catalytically active nicotine oxidoreductase fragments or holoenzymes and CycN cytochrome c fragments or holoenzymes. Additionally, variants of L-6-hydroxynicotine oxidase, or catalytically active fragments thereof, are provided. Further disclosed are polynucleotides encoding such proteins, vectors comprising such polynucleotides, and host cells comprising such polynucleotides or vectors. Also provided are methods of using any of the disclosed compositions or formulations to treat nicotine dependence or reduce the risk of relapse to nicotine dependence.

Disclosed herein are methods and compositions to treat solid tumors. In one embodiment, the method of treating a solid tumor in a patient includes administering at the tumor site a therapeutically effective amount of cytochrome P450 producing cells encapsulated in a capsule and administering a prodrug which is activated by cytochrome P450, wherein the prodrug is administered at least three or more cycles, and wherein each cycle comprises three consecutive daily administration.

Provided herein are methods for treating at least one symptom of ALS in a subject who has received a first dosage of a substrate of a CYP or a transporter, the method including administering to the subject a composition comprising a bile acid or a pharmaceutically acceptable salt thereof and a phenylbutyrate compound, monitoring the subject for response to the substrate, and administering a second dosage of the substrate, wherein the second dosage is less than the first dosage.

Described herein are compositions and methods useful for treating autoimmune diseases and inflammatory disorders. The compositions and methods utilize ubiquitous, non-tissue specific antigens associated with major histocompatibility complexes (MHCs) and coupled to a nanoparticle core to induce regulatory T cells and regulatory B cells.

The invention relates to pharmaceutical industry and discloses a method of obtaining a new pharmacologically active liposomal agent containing substances that exhibit specific pharmacological activity on peripheral vessels and cavernous bodies of a mammal. More particularly, the invention relates to a method of obtaining a pharmacologically active liposomal cytochrome c containing nitric oxide. The new liposomal agent acts as a donor of the key biologically active substancenitric oxide (NO). A method of obtaining a pharmacologically active liposomal cytochrome c and nitric oxide complex comprises the treatment of the liposomal cytochrome c emulsion with gaseous nitric oxide (NO) until liposomal cytochrome c is completely reconstituted and the addition of an S-nitroso compound to the liposomal cytochrome c emulsion.

Provided are catechol nanoparticles, catechol protein nanoparticles, and a preparation method and use thereof. The method includes: adding a tannin compound-containing natural herb medicine into water to obtain a mixture, and subjecting the mixture to heating reflux extraction to obtain a herb medicine extract and subjecting the herb medicine extract to fractionation to obtain the catechol nanoparticles.

Cytotoxic factors having use in modulating cell death, and their use in methods of treating necrosis or apoptosis-related conditions are disclosed. The invention also relates to methods for identifying active agents useful in treating conditions related to cell death or uncontrolled growth. The present inventors have found that different microorganisms produce different cytotoxic factor(s) having anticancer activity. The substantially pure cytotoxic factors can be used in a method of treating an infectious disease or a cancer.

The present invention includes novel inhibitors of JARID1A demethylase activity, and methods using the same.

The present invention includes novel inhibitors of JARID1A demethylase activity, and methods using the same.