Abstract: Disclosed herein are methods for otoprotection against platinum-based antineoplastic agents by administering a thiosulfate salt to a subject in need thereof. Typically, the thiosulfate salt is administered to the subject scheduled to be administered a platinum-based antineoplastic agent within 4 hours. Alternatively, the thiosulfate salt is administered within 7 hours after the administration of a platinum-based neoplastic agent.

Abstract: The present disclosure relates to recombinant RNA molecules encoding an oncolytic virus genome. The present disclosure further relates to the encapsulation of the recombinant RNA molecules and the use of the recombinant RNA molecules and/or particles for the treatment and prevention of cancer.

Abstract: Hypertonic pharmaceutical compositions are disclosed. The hypertonic pharmaceutical compositions contain an anti-platinum chemoprotectant agent and a gelling agent. Also disclosed are methods of medical use of the hypertonic pharmaceutical compositions.

Abstract: Disclosed herein are methods for otoprotection against platinum-based antineoplastic agents by administering a thiosulfate salt to a subject in need thereof. Typically, the thiosulfate salt is administered to the subject scheduled to be administered a platinum-based antineoplastic agent within 4 hours. Alternatively, the thiosulfate salt is administered within 7 hours after the administration of a platinum-based neoplastic agent.

Abstract: The invention provides methods to prepare protein conjugates from proteins having at least two cysteines. In one embodiment, a protein with a disulfide linkage is reduced to provide two free cysteines for reaction with a 1,3-dihaloacetone or similar reactant, linking the sulfur atoms of the two cysteines together. The ketone inserted between the sulfur atoms is then used to form a Schiff base to an aminated payload molecule, thus conjugating the protein to a payload. In another embodiment, two cysteine residues are tied together by reaction with a 1,3-dihaloacetone or similar reactant. The linkage between the sulfur atoms in each case holds the protein or peptide in a constrained conformation, while also providing a convenient place for attaching a payload with good specificity and efficiency.

Abstract: The invention provides compositions and methods containing alpha-helical polypeptides as permeation enhancers for effectuating the passage of therapeutic agents into the inner ear by passage through the round window membrane. Examples of permeation-enhancing peptides useful in conjunction with the compositions and methods described herein are facially amphipathic, positively charged peptides. The permeation-enhancing peptides of the disclosure may be used to effectuate the entry of a variety of therapeutic agents into the inner ear, such as proteins, antibodies, nucleic acids, viral vectors, and nanoparticles, among others. Upon accessing the inner ear, the therapeutic agents may migrate to a particular site at which they may exert their biological effect.

Abstract: Hypertonic pharmaceutical compositions are disclosed. The hypertonic pharmaceutical compositions contain an anti-platinum chemoprotectant agent and a gelling agent. Also disclosed are methods of medical use of the hypertonic pharmaceutical compositions.

Abstract: This disclosure provides novel saccharide derivatives, conjugates, and methods for making the derivatives and conjugates.

Abstract: This disclosure provides novel saccharide derivatives, conjugates, and methods for making the derivatives and conjugates.

Abstract: Hypertonic pharmaceutical compositions are disclosed. The hypertonic pharmaceutical compositions contain an anti-platinum chemoprotectant agent and a gelling agent. Also disclosed are methods of medical use of the hypertonic pharmaceutical compositions.

Abstract: Disclosed herein are methods for otoprotection against platinum-based antineoplastic agents by administering a thiosulfate salt to a subject in need thereof. Typically, the thiosulfate salt is administered to the subject scheduled to be administered a platinum-based antineoplastic agent within 4 hours. Alternatively, the thiosulfate salt is administered within 7 hours after the administration of a platinum-based neoplastic agent.

Abstract: Hypertonic pharmaceutical compositions are disclosed. The hypertonic pharmaceutical compositions contain an anti-platinum chemoprotectant agent and a gelling agent. Also disclosed are methods of medical use of the hypertonic pharmaceutical compositions.

Abstract: Disclosed herein are methods for otoprotection against platinum-based antineoplastic agents by administering a thiosulfate salt to a subject in need thereof. Typically, the thiosulfate salt is administered to the subject scheduled to be administered a platinum-based antineoplastic agent within 4 hours. Alternatively, the thiosulfate salt is administered within 7 hours after the administration of a platinum-based neoplastic agent.

Abstract: The invention provides methods to prepare protein conjugates from proteins having at least two cysteines. In one embodiment, a protein with a disulfide linkage is reduced to provide two free cysteines for reaction with a 1,3-dihaloacetone or similar reactant, linking the sulfur atoms of the two cysteines together. The ketone inserted between the sulfur atoms is then used to form a Schiff base to an aminated payload molecule, thus conjugating the protein to a payload. In another embodiment, two cysteine residues are tied together by reaction with a 1,3-dihaloacetone or similar reactant. The linkage between the sulfur atoms in each case holds the protein or peptide in a constrained conformation, while also providing a convenient place for attaching a payload with good specificity and efficiency.

Abstract: Hypertonic pharmaceutical compositions are disclosed. The hypertonic pharmaceutical compositions contain an anti-platinum chemoprotectant agent and a gelling agent. Also disclosed are methods of medical use of the hypertonic pharmaceutical compositions.

Abstract: The invention provides methods to prepare protein conjugates from proteins having at least two cysteines. In one embodiment, a protein with a disulfide linkage is reduced to provide two free cysteines for reaction with a 1,3-dihaloacetone or similar reactant, linking the sulfur atoms of the two cysteines together. The ketone inserted between the sulfur atoms is then used to form a Schiff base to an aminated payload molecule, thus conjugating the protein to a payload. In another embodiment, two cysteine residues are tied together by reaction with a 1,3-dihaloacetone or similar reactant. The linkage between the sulfur atoms in each case holds the protein or peptide in a constrained conformation, while also providing a convenient place for attaching a payload with good specificity and efficiency.

Abstract: The invention provides methods to prepare protein conjugates from proteins having at least four accessible cysteine residues. In one embodiment, an antibody with four reducible disulfide linkages is reduced to provide four pairs of free cysteines. Each pair of free cysteines is reacted with a 1,3-dihaloacetone or similar reactant, linking the sulfur atoms of each pair together though a 3-carbon tether with a reactive ketone. A pair of these reactive ketones are linked together with and used to attach a single payload molecule, thus conjugating the antibody to two payload groups. This method gives a stabilized antibody conjugate with high selectivity for a ratio of two payloads per antibody.

Abstract: Hypertonic pharmaceutical compositions are disclosed. The hypertonic pharmaceutical compositions contain an anti-platinum chemoprotectant agent and a gelling agent. Also disclosed are methods of medical use of the hypertonic pharmaceutical compositions.

Abstract: The invention provides methods to prepare protein conjugates from proteins having at least four accessible cysteine residues. In one embodiment, an antibody with four reducible disulfide linkages is reduced to provide four pairs of free cysteines. Each pair of free cysteines is reacted with a 1,3-dihaloacetone or similar reactant, linking the sulfur atoms of each pair together though a 3-carbon tether with a reactive ketone. A pair of these reactive ketones are linked together with and used to attach a single payload molecule, thus conjugating the antibody to two payload groups. This method gives a stabilized antibody conjugate with high selectivity for a ratio of two payloads per antibody.

Abstract: This application discloses anti-P-cadherin antibodies, antigen binding fragments thereof, and antibody drug conjugates of said antibodies or antigen binding fragments, particularly antibody drug conjugates comprising anti-P-cadherin antibodies conjugated to auristatin analogs. The invention also relates to methods of treating cancer using the antibody drug conjugates. Also disclosed herein are methods of making the antibodies, antigen binding fragments, and antibody drug conjugates, and methods of using the antibodies and antigen binding fragments as diagnostic reagents.