Abstract: The present invention discloses populations of T cells expressing a chimeric antigen receptor (CAR), wherein said T cells are placental T cells derived from cord blood, placental perfusate, or a mixture thereof. Such populations of cells are shown to be improved in a number of aspects over alternative populations of cells such as those derived from peripheral blood mononuclear cell T cells. It also discloses methods of treating cancer, such as a hematologic cancer, e.g., a B cell cancer, or a symptom thereof in a patient in need thereof. These methods comprise administering to the patient an amount of the population of T cells of any one of the invention effective to alleviate the cancer or symptom thereof in the patient.

Abstract: Methods, ink compositions, and 3D conformal printed flexible films. The method may include aerosol jet printing a thermoelectric ink composition, followed by photonic or other sintering of the ink to remove surfactant included therein, and to convert the thermoelectric nanoparticles of the ink composition into a dense structure capable of charge carrier transport. The ink compositions may be solution-processed semimetal-chalcogenides (e.g., Te containing materials) in a suitable carrier (e.g., polyol(s), alcohol(s), etc.). A surfactant (e.g., PVP) may be present in the ink. Within seconds of photonic sintering, the electrical conductivity of the printed film is dramatically increased from non-conductive to a value on the order of at least 1×104 S/m. The films may demonstrate a room-temperature power factor of at least 500 ?Wm?1K?2. The realized values of 730-2200 ?Wm?1K?2 achieved are among the highest values reported for flexible thermoelectric films. The film is durable (e.g.

Abstract: The present disclosure provides dimeric antigen receptors (DAR) constructs comprising a heavy chain binding region on one polypeptide chain and a light chain binding region on a separate polypeptide chain. The two polypeptide chains that make up the dimeric antigen receptors can dimerize to form an antigen binding domain. The dimeric antigen receptors have antibody-like properties as they bind specifically to a target antigen. The dimeric antigen receptors can be used for directed cell therapy.

Abstract: Disclosed in the present application are CAR constructs that encode domains of anti-CD19 antibodies, T cells that include and express the CD19 CAR constructs, and methods of use, such as methods of treating disease, including hematological cancers, using CAR-T cells that express the CD19 CAR constructs.

Abstract: The present disclosure provides transgenic T cells expressing engineered dimeric antigen receptors (DARs) that bind GD2. where the DAR includes a heavy chain binding region on one polypeptide chain and a light chain binding region on a separate polypeptide chain. The two polypeptide chains that make up the dimeric antigen receptors can dimerize to form an antigen binding domain. The transgenic T cells can be used for directed cell therapy.

Abstract: Provided are an ink composition, comprising greater than 0.2% by weight a graphene quantum dot nanosurfactant, a printable material, and a solvent, wherein the printable material is dispersed in the solvent by the graphene quantum dot nanosurfactant, and a method of preparing an ink composition. Advantageously, the present ink composition may be printed onto 2D and 3D substrates to form printed films with improved mechanical stability and photoconductance.

Abstract: The present disclosure provides fully human antibodies that specifically bind the spike (S) protein of the SARS-CoV-2 coronavirus with high affinity, or antigen-binding proteins derived from such antibodies, and uses thereof. Included are anti-spike protein antibodies, antibody fragments, and single-chain antibodies, that are coronavirus neutralizing antibodies, as well as pharmaceutical compositions that include such antibodies and antibody fragments. Methods for using the anti-spike protein antibodies include methods of treating or preventing infection with a coronavirus, such as the SARS-CoV-2 coronavirus, by administering an antibody or antibody fragment as disclosed herein, including by intranasal delivery. Methods and compositions for treating or preventing coronavirus infection by administering a composition that includes a nucleic acid construct that encodes a neutralizing antibody are also provided.

Abstract: The present disclosure provides antigen-binding proteins, such as fully human antibodies, that specifically bind the spike (S) protein of the SARS-CoV-2 coronavirus and uses thereof. In various embodiments, the anti-spike protein antibodies are neutralizing antibodies that prevent binding of the SARS-CoV-2 coronavirus to a target cell expressing the ACE2 protein. Included are anti-spike protein antibodies, antibody fragments, and single-chain antibodies, as well as pharmaceutical compositions that include such antibodies and antibody fragments. Also provided herein are nucleic acids and recombinant expression vectors that encode the anti-spike protein antibodies and antibody fragments disclosed herein and transgenic cells transected with such nucleic acids and expression vectors. Further provided are methods for preparing and using such anti-spike protein antibodies.

Abstract: There is disclosed compositions and methods relating to or derived from anti-CD38 antibodies. More specifically, there is disclosed fully human antibodies that bind CD38, CD38-antibody binding fragments and derivatives of such antibodies, and CD38-binding polypeptides comprising such fragments. Further still, there is disclosed nucleic acids encoding such antibodies, antibody fragments and derivatives and polypeptides, cells comprising such polynucleotides, methods of making such antibodies, antibody fragments and derivatives and polypeptides, and methods of using such antibodies, antibody fragments and derivatives and polypeptides, including methods of treating a disease.

Abstract: The present disclosure provides activatable masked antigen binding proteins comprising an antigen binding protein attached to universal masking moieties by peptide linkers. The universal masking moieties dimerize with each other to form a dimerized masking complex that blocks binding between the antigen binding domain and its target antigen. The individual masking moieties and the dimerized masking complex do not bind specifically to the antigen binding domain. The masking moieties form stable dimers because their association with each other mimics homodimers or heterodimers found in naturally-occurring immunoglobulin or cell receptor molecules. The dimerization of the masking moieties does not involve covalent bonding and can be optimized by engineering interchain association through structure complementarity such as knob-in-hole.

Abstract: The present disclosure provides methods for treating a subject having a coronavirus infection by administering a composition that includes a sACE2 polypeptide to the lungs of a subject infected with a coronavirus. The sACE2 polypeptide includes the extracellular portion of the human ACE2 polypeptide and acts as a decoy, binding the spike (S) protein of coronavirus and thereby preventing the interaction of the S protein with membrane-associated ACE2 expressed on pulmonary cells, thus disrupting the infection process. The sACE2 polypeptide is derived from human ACE2, preventing potential immune reactions of the subject to the therapeutic polypeptide. The sACE2 polypeptide is administered locally to the site of the pathology, avoiding potential adverse effects of systemic delivery.

Abstract: The present disclosure provides dimeric antigen receptors (DAR) constructs that bind a CD20 target antigen, where the DAR construct comprises a heavy chain binding region on one polypeptide chain and a light chain binding region on a separate polypeptide chain. The two polypeptide chains that make up the dimeric antigen receptors can dimerize to form an antigen binding domain. The dimeric antigen receptors have antibody-like properties as they bind specifically to a target antigen. The dimeric antigen receptors can be used for directed cell therapy.

Abstract: The present disclosure provides heterodimeric antibodies that bind to two different target antigens at the same time. In one embodiment, the heterodimeric antibodies are bispecific antibodies. In one embodiment, the heterodimeric antibodies comprise three polypeptides including: a first polypeptide comprising an scFv-Fc fusion polypeptide; a second polypeptide comprising an immunoglobulin heavy chain; and a third polypeptide comprising an immunoglobulin light chain. In one embodiment, the first polypeptide includes one or more point mutations that confer increased thermal-stability to the first polypeptide.

Abstract: The present disclosure provides several embodiments of multi-specific antigen binding protein complexes. In some embodiments, the multi-specific antigen binding protein complex is composed of either two or three polypeptide chains that assemble with each other to form het-erodimeric complexes comprising two different Fab regions each capable of binding two different epitopes and comprising an Fc region which is capable of exhibiting Fc effector function, thus having a relatively simple structure compared to certain other multi-specific antibodies. In one embodiment, the multi-specific antigen binding protein complex is activatable as one of the polypeptide chains that compose the protein complex carries a cleavable linker.

Abstract: The present disclosure provides dimeric antigen receptors (DAR) constructs that bind a BCMA target antigen, where the DAR construct comprises a heavy chain binding region on one polypeptide chain and a light chain binding region on a separate polypeptide chain. The two polypeptide chains that make up the dimeric antigen receptors can dimerize to form an antigen binding domain. The dimeric antigen receptors have antibody-like properties as they bind specifically to a target antigen. The dimeric antigen receptors can be used for directed cell therapy.

Abstract: Methods, ink compositions, and 3D conformal printed flexible films. The method may include aerosol jet printing a thermoelectric ink composition, followed by photonic or other sintering of the ink to remove surfactant included therein, and to convert the thermoelectric nanoparticles of the ink composition into a dense structure capable of charge carrier transport. The ink compositions may be solution-processed semimetal-chalcogenides (e.g., Te containing materials) in a suitable carrier (e.g., polyol(s), alcohol(s), etc.). A surfactant (e.g., PVP) may be present in the ink. Within seconds of photonic sintering, the electrical conductivity of the printed film is dramatically increased from non-conductive to a value on the order of at least 1×104 S/m. The films may demonstrate a room-temperature power factor of at least 500 ?Wm?1K?2. The realized values of 730-2200 ?Wm?1K?2 achieved are among the highest values reported for flexible thermoelectric films. The film is durable (e.g.

Abstract: There is disclosed an improved, safer and commercially efficient process for developing genetically engineered cells. More specifically, there is disclosed a process comprises introducing a donor DNA construct, a guide RNA, and an RNA-guided nuclease with the host cells to he transfected; and introducing the three components into the host cell. There is further disclosed a donor DNA construct designed for inserting a CAR (chimeric antigen receptor) into a defined genomic site of a host cell. Further, the present disclosure provides a host cell transfected with a CAR that lacks viral vectors that can present a safety concern. The disclosure provides for more efficient and more cost-effective process for engineering T cells to express CAR constructs.

Abstract: There is disclosed an improved, safer and commercially efficient process for developing genetically engineered cells. More specifically, there is disclosed a process comprises introducing a donor DNA construct, a guide RNA, and an RNA-guided nuclease with the host cells to be transfected; and introducing the three components into the host cell. There is further disclosed a donor DNA construct designed for inserting a CAR (chimeric antigen receptor) into a defined genomic site of a host cell. Further, the present disclosure provides a host cell transfected with a CAR that lacks viral vectors that can present a safety concern. The disclosure provides for more efficient and more cost-effective process for engineering T cells to express CAR constructs.

Abstract: Provided are an ink composition, comprising greater than 0.2% by weight a graphene quantum dot nanosurfactant, a printable material, and a solvent, wherein the printable material is dispersed in the solvent by the graphene quantum dot nanosurfactant, and a method of preparing an ink composition. Advantageously, the present ink composition may be printed onto 2D and 3D substrates to form printed films with improved mechanical stability and photoconductance.

Abstract: The present disclosure provides dimeric antigen receptors (DAR) constructs comprising a heavy chain binding region on one polypeptide chain and a light chain binding region on a separate polypeptide chain. The two polypeptide chains that make up the dimeric antigen receptors can dimerize to form an antigen binding domain. The dimeric antigen receptors have antibody-like properties as they bind specifically to a target antigen. The dimeric antigen receptors can be used for directed cell therapy.