Abstract: The present invention relates to a human agonistic CD40 multispecific antibody construct for treatment of solid tumors by engineering a molecule that specifically targets the CD40 pathway on tumor-associated APCs, without systemic CD40 activation.

Abstract: The ability to generate a single antibody-based construct that can recognize multiple targets simultaneously, is paramount to advance many therapeutics candidates to clinic. Often, this implies extensive protein design with vary degrees of success. In the case of multispecific antibodies, the driving of the HC/LC pairing in the Fab region represents one of the most difficult challenges yet in the field of multispecific engineering. Described here is the discovery of a new single chain Fab module that utilizes a novel linker between VL-CL and VH-CH1 domains which will further enable the production of multispecifics.

Abstract: The ability to generate a single antibody-based construct that can recognize multiple targets simultaneously, is paramount to advance many therapeutics candidates to clinic. Often, this implies extensive protein design with vary degrees of success. In the case of multispecific antibody constructs, there are multiple modalities from which to choose and often multiple antigen binders as well. Described here is the discovery of new methods to optimally pair antigen binders with the proper format, including the selection of common light chains.

Abstract: The present invention relates to severe acute respiratory syndrome coronavirus 2 (“SARS-CoV2”) immunogens useful for the generation of therapeutic antibodies and vaccine development. Such therapeutic antibodies include human antibodies and antigen-binding portions thereof that specifically bind to human SARS-CoV2 S protein, and that function to neutralize SARS-CoV2. The present invention also relates to methods of generating antibodies and antigen-binding portions thereof that specifically bind to human SARS-CoV2 S protein.

Abstract: The ability to generate a single antibody-based construct that can recognize multiple targets simultaneously, is paramount to advance many therapeutics candidates to clinic. Often, this implies extensive protein design with vary degrees of success. In the case of multispecific antibodies, the driving of the HC/LC pairing in the Fab region represents one of the most difficult challenges yet in the field of multispecific engineering. Described here is the discovery of a new placement for a non-canonical disulfide bond and as such the generation of an asymmetric cysteine interface between two Fabs present in the same molecule which will further enable the production of multispecifics.

Abstract: The present invention relates to novel multispecific antigen binding proteins that are capable of binding to multiple targets. Pharmaceutical compositions comprising the multispecific antigen binding proteins as well as methods for producing them are also disclosed.

Abstract: The present invention relates to heterodimers comprising antibody CH3 domains and mutations useful for the facilitation of the formation of heterodimers. Methods of optimizing purification of the heterodimers at certain pHs in also disclosed.

Abstract: The present invention relates to antagonist antibodies of the human calcitonin gene-related peptide (CGRP) receptor as well as bispecific antigen binding proteins derived from the anti-CGRP antibodies that bind to and inhibit both the human CGRP receptor and another target, such as the human pituitary adenylate cyclase activating polypeptide type I receptor (PAC1) receptor. Pharmaceutical compositions comprising the anti-CGRP receptor antibodies and bispecific antigen binding proteins as well as methods for producing them are also disclosed. Methods of using the anti-CGRP receptor antibodies and bispecific antigen binding proteins to ameliorate, treat, or prevent conditions associated with the CGRP and PAC1 receptors, such as chronic pain, migraine, and cluster headache, are also described.

Abstract: The clinical potential of multispecific antibodies like bispecific and trispecific antibodies shows great promise for targeting complex diseases. However, the generation of those molecules presents great challenges as in many cases it is desired to specifically drive the specific pairing of multiple polypeptide chains that are present in solutions. In the case of the heavy chains, there are two main regions that form a dimer interface. One of them is the CH3 region, which has been widely exploited by inserting either charge-pair mutations (CPMs) to steer the dimer interface or inserting large bulky residues into cavities (Knob in Hole) to physically favor and disfavor the dimer formation. However, each of these strategies may not be applied to every molecule and therefore there is the need for more tools. Here, we describe the engineering of the Hinge region with a small number of mutations that are capable to alone successfully drive the heavy chain dimerization.

Abstract: The present invention relates to a human agonistic CD40 multispecific antibody construct for treatment of solid tumors by engineering a molecule that specifically targets the CD40 pathway on tumor-associated APCs, without systemic CD40 activation.

Abstract: Antigen binding proteins that interact with ASGR, ASGR-1 and/or ASGR-2 are described as well as methods of making and using such antigen binding proteins. Methods of treating and preventing cardiovascular disease by administering a pharmaceutically effective amount of ASGR, ASGR-1 and/or ASGR-2 antigen binding proteins. Methods of treating and preventing cardiovascular disease by administering a pharmaceutically effective amount of interfering RNA compositions that reduce expression of ASGR, ASGR-1 and/or ASGR-2 are described.

Abstract: Antigen binding proteins that interact with ASGR, ASGR-1 and/or ASGR-2 are described as well as methods of making and using such antigen binding proteins. Methods of treating and preventing cardiovascular disease by administering a pharmaceutically effective amount of ASGR, ASGR-1 and/or ASGR-2 antigen binding proteins. Methods of treating and preventing cardiovascular disease by administering a pharmaceutically effective amount of interfering RNA compositions that reduce expression of ASGR, ASGR-1 and/or ASGR-2 are described.

Abstract: Antigen binding proteins that interact with ASGR, ASGR-1 and/or ASGR-2 are described as well as methods of making and using such antigen binding proteins. Methods of treating and preventing cardiovascular disease by administering a pharmaceutically effective amount of ASGR, ASGR-1 and/or ASGR-2 antigen binding proteins. Methods of treating and preventing cardiovascular disease by administering a pharmaceutically effective amount of interfering RNA compositions that reduce expression of ASGR, ASGR-1 and/or ASGR-2 are described.