This invention provides a range of translatable messenger UNA (mUNA) molecules. The mUNA molecules can be translated in vitro and in vivo to provide an active polypeptide or protein, or to provide an immunization agent or vaccine component. The mUNA molecules can be used as an active agent to express an active polypeptide or protein in cells or subjects. Among other things, the mUNA molecules are useful in methods for treating rare diseases.

This application generally relates to the field of methods, systems and compositions for addressing diseases associated with apoptotic cell death, including autoimmune diseases and inflammatory diseases, and more particularly to such methods, systems and compositions that use antibodies having binding specificity to PKM2.

The present invention relates to a mutant microorganism in which a gene that encodes phosphofructokinase-2 is disrupted or deleted to reduce glycolytic flux to thereby improve the ability of the microorganism to produce N-acetylglucosamine, and to a method of producing N-acetylglucosamine using the mutant microorganism. The mutant microorganism according to the present invention has advantages in that it has high resistance to various chemical substances, grows rapidly, is easily cultured, and produces N-acetylglucosamine with high efficiency, indicating that it is useful for production of a large amount of N-acetylglucosamine.

Metabolites produced by a microorganism using oxaloacetate, pyruvate and/or acetyl-CoA as substrate or co-substrate upstream in the biosynthesis pathway, and more particularly using oxaloacetate. There is indeed a need in the art for transformed, in particular recombinant, microorganisms having at least an increased ability to produce oxaloacetate, pyruvate and/or acetyl-CoA, and in particular oxaloacetate, thus allowing an increased capacity to produce metabolites produced using oxaloacetate, pyruvate and/or acetyl-CoA as substrate or co-substrate upstream in the biosynthesis pathway, and in particular amino acids and their derivatives thereof, fatty acids, derivatives from the mevalonate pathway (in particular farnesyl, squalene, lanosterol, cholesterol and derivatives, and dolichols), flavonoides and/or polyketides. The solution proposed is the use of a genetically modified yeast comprising many modifications as described in the present text.

Metabolites produced by a microorganism using more particularly oxaloacetate as substrate or co-substrate upstream in the biosynthesis pathway. There is indeed a need in the art for transformed, in particular recombinant, microorganisms having at least an increased ability to produce oxaloacetate, thus allowing an increased capacity to produce oxaloacetate-derived amino acids and amino acid derivatives, the oxaloacetate-derived amino acids and amino acid derivatives being termed oxaloacetate derivatives. The solution is the use of a genetically modified yeast including many modifications as described in the present text.

There is provided a medical agent for use in a method of treatment of nonalcoholic fatty liver disease (NAFLD) or hepatocellular carcinoma (HCC), wherein the medical agent comprises a polynucleotide and is capable of silencing or knocking out the PKLR gene.

The invention is directed to a non-naturally occurring microbial organism comprising a first attenuation of a succinyl-CoA synthetase or transferase and at least a second attenuation of a succinyl-CoA converting enzyme or a gene encoding a succinate producing enzyme within a multi-step pathway having a net conversion of succinyl-CoA to succinate.

Described herein are methods of treating pyruvate kinase deficiency (PKD), sickle cell disease or thalassemia with mitapivat or a pharmaceutically acceptable salt thereof, or use of the drug for the treatment of these conditions, in combination with or in the absence of with a secondary drug, such as an inducer or an inhibitor of cytochrome P450. Various doses and dosing regimens of mitapivat in monotherapy and in concomitant medications are described.

Described herein are methods of treating pyruvate kinase deficiency (PKD), sickle cell disease or thalassemia with mitapivat or a pharmaceutically acceptable salt thereof, or use of the drug for the treatment of these conditions, in combination with or in the absence of with a secondary drug, such as an inducer or an inhibitor of cytochrome P450. Various doses and dosing regimens of mitapivat in monotherapy and in concomitant medications are described.

The present disclosure is related to genetically engineered microbial strains and related bioprocesses for the production of pyruvate and related products. Specifically, the use of dynamically controlled synthetic metabolic valves to reduce the activity of enzymes known to contribute to pyruvate synthesis, leads to increased pyruvate production in a two-stage process rather than a decrease in production.