Abstract: Provided herein are molecules having an antigen binding fragment that immunospecifically binds to BTN1A1, such as anti-BTN1A1 antibodies. These molecules include those having an antigen binding fragment that immunospecifically binds to glycosylated BTN1A1, such as anti-glycosylated BTN1A1 antibodies. Methods of making and using these molecules are also provided, including methods of using them in cancer therapies, or as cancer diagnostics.

Abstract: Provided herein are methods for treating cancer using molecules having an antigen binding fragment that immunospecifically binds to BTN1A1 or a BTN1A1 ligand, such as anti-BTN1A1 antibodies or anti-BTN1A1 ligand antibodies. Also provided herein are BTN1A1 ligands, such as Galectin-1, Galectin-9, Neuropilin-2, and B- and T-Lymphocyte Attenuator.

Abstract: Provided herein are methods for treating cancer using molecules having an antigen binding fragment that immunospecifically binds to BTN1A1 or a BTN1A1 ligand, such as anti-BTN1A1 antibodies or anti-BTN1A1 ligand antibodies. Also provided herein are BTN1A1 ligands, such as Galectin-1, Galectin-9, Neuropilin-2, and B- and T-Lymphocyte Attenuator.

Abstract: Provided herein are molecules, such as antibodies, that selectively bind to glycosylated BTLA (B- and T-lymphocyte attenuator) relative to unglycosylated BTLA. Methods for making and using such molecules are also provided, including methods for treating or diagnosing cancer. In some embodiments, the anti-glycosylated BTLA antibodies provided herein can immunospecifically bind to glycosylated wild-type BTLA (WT). In some embodiments, the anti-glycosylated BTLA antibodies provided herein can immunospecifically bind to one or more BTLA double mutants that retain only a single glycosylation site at BTLA N75, N94 or N110. In some embodiments, the anti-glycosylated BTLA antibodies provided herein show only background binding, if any, to a BTLA triple mutant, that retains none of BTLA's N75, N94, or N110 0-glycosylation sites.

Abstract: Provided herein are molecules having an antigen binding fragment that immunospecifically binds to BTN1A1, such as anti-BTN1A1 antibodies. These molecules include those having an antigen binding fragment that immunospecifically binds to glycosylated BTN1A1, such as anti-glycosylated BTN1A1 antibodies. Methods of making and using these molecules are also provided, including methods of using them in cancer therapies, or as cancer diagnostics.

Abstract: Provided herein are molecules having an antigen binding fragment that immunospecifically binds to BTN1A1, such as anti-BTN1A1 antibodies. These molecules include those having an antigen binding fragment that immunospecifically binds to glycosylated BTN1A1, such as anti-glycosylated BTN1A1 antibodies. Methods of making and using these molecules are also provided, including methods of using them in cancer therapies, or as cancer diagnostics.

Abstract: Provided herein are molecules having an antigen binding fragment that immuno specifically binds to BTN1A1, such as anti-BTN1A1 antibodies. These molecules include those having an antigen binding fragment that immuno specifically binds to BTN1A1 dimers, such as anti-BTN1A1 dimer antibodies. Methods of making and using these molecules are also provided, including methods of using them in cancer therapies, or as cancer diagnostics.

Abstract: Provided herein are methods for treating cancer using molecules having an antigen binding fragment that immunospecifically binds to BTN1A1, such as anti-BTN1A1 antibodies. These molecules include those having an antigen binding fragment that immunospecifically binds to glycosylated BTN1A1, such as anti-glycosylated BTN1A1 antibodies. Also included are molecules having an antigen binding fragment that immunospecifically bind to BTN1A1 dimers, such as anti-BTN1A1 dimer antibodies. Also provided are methods for treating anti-PD-1 therapy or anti-PD-L1 therapy resistant or refractory cancers.

Abstract: Provided herein are methods for treating cancer using molecules having an antigen binding fragment that immunospecifically binds to BTN1A1 or a BTN1A1 ligand, such as anti-BTN1A1 antibodies or anti-BTN1A1 ligand antibodies. Also provided herein are BTN1A1 ligands, such as Galectin-1, Galectin-9, Neuropilin-2, and B- and T-Lymphocyte Attenuator.

Abstract: Provided herein are molecules having an antigen binding fragment that immunospecifically binds to BTN1A1, such as anti-BTN1A1 antibodies. These molecules include those having an antigen binding fragment that immunospecifically binds to glycosylated BTN1A1, such as anti-glycosylated BTN1A1 antibodies. Methods of making and using these molecules are also provided, including methods of using them in cancer therapies, or as cancer diagnostics.

Abstract: Provided herein are molecules, such as antibodies, that selectively bind to glycosylated BTLA (B- and T-lymphocyte attenuator) relative to unglycosylated BTLA. Methods for making and using such molecules are also provided, including methods for treating or diagnosing cancer. In some embodiments, the anti-glycosylated BTLA antibodies provided herein can immunospecifically bind to glycosylated wild-type BTLA (WT). In some embodiments, the anti-glycosylated BTLA antibodies provided herein can immunospecifically bind to one or more BTLA double mutants that retain only a single glycosylation site at BTLA N75, N94 or N110. In some embodiments, the anti-glycosylated BTLA antibodies provided herein show only background binding, if any, to a BTLA triple mutant, that retains none of BTLA's N75, N94, or N110 0-glycosylation sites.

Abstract: In vitro and in vive methods for screening for targets for cancer therapy are provided herein. Methods contemplate screening for targets that contribute to the immunosuppressive environment for the tumor cells, especially those targets that are associated with radiation treatment. Thus, methods provided herein are useful for identifying potential targets useful for providing cancer therapeutic agents that can be used either alone or in combination with radiation therapy.

Abstract: Disclosed are oligomers that bind Ku protein. These oligomers are useful for inhibiting activation of DNA-PK, treating certain forms of autoimmune disease, detection and purification of Ku protein, and identification of proteins that interact with Ku protein. Preferably, the oligomers are composed of nucleotides, nucleotide analogs, or a combination. Most preferably, the oligomers are composed of ribonucleotides. Also disclosed is a method of inhibiting DNA repair, a method of identifying cellular proteins that interact with Ku protein, and a method of treating autoimmune disease in patients with anti-Ku antibodies. The disclosed oligomers can have several preferred features, either alone or in combination, in addition to Ku binding. One such feature, referred to herein as inhibition activity, is inhibition of DNA-PK kinase activity. Another preferred feature, referred to herein as aptamer motifs, is the presence of one or more of the base sequences GCUUUCCCANNNAC, A(A/C)AUGA, and AACUUCGA.