Abstract: This disclosure relates to SARS-CoV-2 antibodies disclosed herein and specific binding fragments thereof, therapeutic and diagnostic uses, and compositions related thereto. In certain embodiments, this disclosure relates to antibodies disclosed herein and specific binding fragments thereof wherein the antibody or fragment specifically binds to an epitope expressed on a SARS-CoV-2 particle such as the spike protein or receptor binding domain. In certain embodiments, this disclosure relates to treating or preventing a SARS-CoV-2 or related coronavirus infection comprising administering an effective amount of an antibody disclosed herein or specific binding fragments thereof to a subject in need thereof.

Abstract: This disclosure relates to coronavirus assays, diagnostic methods, treatment methods, and compositions related thereto. In certain embodiments, this disclosure relates to ACE2 receptor binding domain peptides and uses in serological assays and vaccination methods.

Abstract: Antibodies that specifically bind influenza virus hemagglutinin A (HA), and antigen binding fragments thereof are disclosed herein. In several embodiments, these antibodies are broadly neutralizing. Nucleic acids encoding these monoclonal antibodies, vectors including these nucleic acids, and host cells transformed with these vectors are also disclosed. Compositions are disclosed that include these antibodies, antigen binding fragments, nucleic acids, vectors and host cells. Method of using these antibodies, and antigen binding fragments, nucleic acids, vectors and host cells, such as for diagnosis and treatment of an influenza virus infection are also provided.

Abstract: Antibodies or antibody fragments, wherein the antibody or the fragment binds HA domain of influenza virus (e.g. H1N1, H5N1, or both). Also described are cloned human antibodies that bind influenza.

Abstract: Antibodies that bind with high affinity to swine H1N1 virus are described. In vivo experiments showed that one such antibody is able to fully protect mice challenged with a lethal dose of swine H1N1 virus. The antibody is also able to cure mice in a therapeutic setting when treated as late as up to 60 hours (2.5 days) after infection with swine H1N1 virus. Also described are recombinant forms of this antibody.

Abstract: Antibodies that specifically bind influenza virus hemagglutinin A (HA), and antigen binding fragments thereof are disclosed herein. In several embodiments, these antibodies are broadly neutralizing. Nucleic acids encoding these monoclonal antibodies, vectors including these nucleic acids, and host cells transformed with these vectors are also disclosed. Compositions are disclosed that include these antibodies, antigen binding fragments, nucleic acids, vectors and host cells. Method of using these antibodies, and antigen binding fragments, nucleic acids, vectors and host cells, such as for diagnosis and treatment of an influenza virus infection are also provided.

Abstract: Antibodies that specifically bind influenza virus hemagglutinin A (HA), and antigen binding fragments thereof are disclosed herein. In several embodiments, these antibodies are broadly neutralizing. Nucleic acids encoding these monoclonal antibodies, vectors including these nucleic acids, and host cells transformed with these vectors are also disclosed. Compositions are disclosed that include these antibodies, antigen binding fragments, nucleic acids, vectors and host cells. Method of using these antibodies, and antigen binding fragments, nucleic acids, vectors and host cells, such as for diagnosis and treatment of an influenza virus infection are also provided.

Abstract: Antibodies that specifically bind influenza virus hemagglutinin A (HA), and antigen binding fragments thereof are disclosed herein. In several embodiments, these antibodies are broadly neutralizing. Nucleic acids encoding these monoclonal antibodies, vectors including these nucleic acids, and host cells transformed with these vectors are also disclosed. Compositions are disclosed that include these antibodies, antigen binding fragments, nucleic acids, vectors and host cells. Method of using these antibodies, and antigen binding fragments, nucleic acids, vectors and host cells, such as for diagnosis and treatment of an influenza virus infection are also provided.

Abstract: Antibodies or antibody fragments, wherein the antibody or the fragment binds HA domain of influenza virus (e.g. H1N1, H5N1, or both).

Abstract: High efficient methods for producing an antibody molecule that binds an antigen are described. The methods include obtaining a population of PBMC enriched for CD19highCD3negCD20low to negCD38highCD27high cells from a mammal exposed to an antigen from sample of cells enriched for PBMC. The cells are isolated from a sample obtained at a time that the fraction of PBMC expressing antibody reactive to the antigen is at a high level. Sequences encoding heavy and light chain variable domains are prepared in a manner that allow production of molecules with natural heavy and light chain pairing.

Abstract: Antibodies that bind with high affinity to swine H1N1 virus are described. In vivo experiments showed that one such antibody is able to fully protect mice challenged with a lethal dose of swine H1N1 virus. The antibody is also able to cure mice in a therapeutic setting when treated as late as up to 60 hours (2.5 days) after infection with swine H1N1 virus. Also described are recombinant forms of this antibody.

Abstract: High efficient methods for producing an antibody molecule that binds an antigen are described. The methods include obtaining a population of PBMC enriched for CD19highCD3negCD20low to negCD38highCD27high cells from a mammal exposed to an antigen from sample of cells enriched for PBMC. The cells are isolated from a sample obtained at a time that the fraction of PBMC expressing antibody reactive to the antigen is at a high level. Sequences encoding heavy and light chain variable domains are prepared in a manner that allow production of molecules with natural heavy and light chain pairing.