Excipient compositions including a combination of excipients for mucoadhesive pharmaceutical compositions that improve mucoadhesiveness power, as well as release of and adhesion time of suitable active pharmaceutical ingredients (APIs) are disclosed. The excipient compositions include an aqueous solution with a synergistic combination of polymers, such as, for example amylopectin, pullulan, hyaluronic acid, and tamarind xyloglucan, among others. These polymers have been demonstrated to improve the release of as well as the adhesion time of APIs onto mucosa membrane. Mucoadhesive pharmaceutical compositions that include excipient compositions include suitable APIs, such as, for example analgesics, anesthetics, anthelmintics, anti-allergic agents, anti-fungals, antihistamines, anti-inflammatory agents, antimigraine agents, and hormones, among others. Mucoadhesive pharmaceutical compositions including excipient compositions are employed in the treatment of a plurality of mucous membrane diseases.

Excipient compositions including a combination of excipients for mucoadhesive pharmaceutical compositions that improve mucoadhesiveness power, as well as release of and adhesion time of suitable active pharmaceutical ingredients (APIs) are disclosed. The excipient compositions include an aqueous solution with a synergistic combination of polymers, such as, for example amylopectin, pullulan, hyaluronic acid, and tamarind xyloglucan, among others. These polymers have been demonstrated to improve the release of as well as the adhesion time of APIs onto mucosa membrane. Mucoadhesive pharmaceutical compositions that include excipient compositions include suitable APIs, such as, for example analgesics, anesthetics, anthelmintics, anti-allergic agents, anti-fungals, antihistamines, anti-inflammatory agents, antimigraine agents, and hormones, among others. Mucoadhesive pharmaceutical compositions including excipient compositions are employed in the treatment of a plurality of mucous membrane diseases.

The disclosures herein relate to the fields of cell biology and the modulation of cellular mechanisms controlling cell viability, cell proliferation, and metabolic processes. More specifically disclosed herein are peptides effective to modulate cellular mechanisms controlling cell viability, cell proliferation, and metabolic processes, including cell signaling associated with aberrant cellular proliferation and malignancy. Also disclosed herein are peptides effective in modulating cellular mechanisms controlling cell viability, treating metabolic diseases, and as cytoprotective agents.

The disclosures herein relate to the fields of cell biology and the modulation of cellular mechanisms controlling cell viability, cell proliferation, and metabolic processes. More specifically disclosed herein are peptides effective to modulate cellular mechanisms controlling cell viability, cell proliferation, and metabolic processes, including cell signaling associated with aberrant cellular proliferation and malignancy. Also disclosed herein are peptides effective in modulating cellular mechanisms controlling cell viability, treating metabolic diseases, and as cytoprotective agents.

Provided are humanized monoclonal antibodies against protein, programmed cell death ligand-1 (PD-L1), the methods of hybridoma generation using SD rats, the nucleic acid molecules encoding the anti-PD-L1 antibodies, expression vectors and host cells used for the expression of anti-PD-L1 antibodies. Also provided are the methods for validating the function of antibodies in vitro.

Provided are humanized monoclonal antibodies against protein, programmed cell death ligand-1 (PD-L1), the methods of hybridoma generation using SD rats, the nucleic acid molecules encoding the anti-PD-L1 antibodies, expression vectors and host cells used for the expression of anti-PD-L1 antibodies. Also provided are the methods for validating the function of antibodies in vitro.

Process and system for acellular therapy in a human subject are provided. The process and system relate to an acellular therapy using therapeutic extracellular vehicles fused to biological material obtained from the subject, via transfusion by extracorporeal systems. The process for acellular therapy is in a subject in need of such therapy.

Compositions and methods disclosed herein can provide complex protein-based structures that can be used in biomedical applications. An example composition includes an assembly that includes disordered polypeptides and partially ordered polypeptides.

The present disclosure relates to implantable constructs designed to deliver antigenic therapeutic reagents to a subject while providing protection from host immune responses. In certain aspects, the constructs are designed to degrade over time or upon a particular signal, thereby providing control of the length of time the therapeutic agent is delivered to the subject.

Embodiments of the invention include quinoline compounds and methods of synthesis. Ohm-581 has demonstrated dual inhibition of JAK2 and BET and acts as a therapeutic agent for micosis fungoides (MF) and other hematologic malignancies. Embodiments also include an efficient process for the preparation of Ohm-581 and pharmaceutically acceptable salts. The process is suited for large-scale production of quinoline compounds including Ohm-581.