Abstract: Described herein are Fe-enhanced antibodies and methods of use thereof. Also described are Fe-enhanced antibodies to treat Ebola virus infection.

Abstract: Described herein are methods of treating, diagnosing, and/or prognosing a disease in a subject relating to detection of the glycosylation state of the antibodies present in the subject. In some embodiments, the disease can be an infection. In some embodiments, an antibody glycosylation state that is indicative of the presence of a disease, or a need for treatment of a disease can be reduced glycosylation (e.g., galactosylation, sialation, fucosylation, and/or afucosylated branched glycoforms).

Abstract: A method for detection of antibodies in a biological sample. The method includes steps of: immobilizing antigens specific to the antibodies between at least two electrodes; binding the antibodies from the biological sample to the antigens; binding probes linked with an enzyme to the antibodies; exposing the enzyme to a metal substrate; depositing a metal layer based on exposing the enzyme to the metal substrate; measuring an electrical property of the metal layer between a first electrode of the at least two electrodes and a second electrode of the at least two electrodes; and detecting, based on measuring the electrical property of the metal layer, the antibodies in the biological sample.

Abstract: Described herein are methods of treating, diagnosing, and/or prognosing a disease in a subject relating to detection of the glycosylation state of the antibodies present in the subject. In some embodiments, the disease can be an infection. In some embodiments, an antibody glycosylation state that is indicative of the presence of a disease, or a need for treatment of a disease can be reduced glycosylation (e.g., galactosylation, sialation, fucosylation, and/or afucosylated branched glycoforms).

Abstract: Systems and methods have been developed to design and engineer glycan dynamics to improve immunogen antigenicity. These include systems for identify glycosylation sites that that impact binding of antibodies to the immunogen, and modifying the glycan profiles on these glycosylation sites to synthesize novel immunogens, antibodies and vaccines. Then, the machine learning algorithm may output data relating to the glycosylation sites that are determinant or likely impact the binding affinity of the variants to the one or more antibodies.

Abstract: Embodiments herein provide methods for identifying antibody glycosylation profiles which correlate with antibody effector functions. These profiles are antibody signatures for the respective correlated antibody effector functions, and are incorporated into engineered antibody for antibody-mediated treatments of infections, diseases, and medical conditions.

Abstract: In accordance with an embodiment of the invention, there is provided a method for: a) high-throughput, multiplexed, affinity-based separation of proteins—especially low abundance proteins—from complex biological mixtures such as serum; and b) high-throughput, multiplexed, affinity-based separation of cells—especially rare cells—from complex biological mixtures such as blood or blood fractions. The separation of proteins or cells is achieved based on differential binding to affinity-capture beads of different sizes and then sorting the protein-bound or cell-bound beads using the concept of centrifugal-induced Dean migration in a spiral microfluidic device. This method enables continuous-flow, high throughput affinity-separation of milligram-scale protein samples or millions of cells in minutes after binding.

Abstract: Systems and methods have been developed to design and engineer glycan dynamics to improve immunogen antigenicity. These include systems for identify glycosylation sites that that impact binding of antibodies to the immunogen, and modifying the glycan profiles on these glycosylation sites to synthesize novel immunogens, antibodies and vaccines. Then, the machine learning algorithm may output data relating to the glycosylation sites that are determinant or likely impact the binding affinity of the variants to the one or more antibodies.

Abstract: The present invention relates to methods exogenous nucleic acid molecules, such as RNA, that encode an antibody or antigen-binding fragment of an antibody, and optionally encode a cellular modulation factor and/or a potentiation factor. The cellular modulation factor is a factor that results in increased expression of the antibody and/or antigen-binding fragment. The potentiation factor is a factor that provides desired antibody effector or other properties. The exogenous nucleic acid molecules can be DNA or RNA, as mRNA (including self-replication RNA and non-self-replicating RNA). The invention also relates method for administering the exogenous nucleic acid molecules to a subject to achieve production of the encoded antibody or antigen-binding fragment in the subject to provide, for example, prophylactic or therapeutic passive immunity.

Abstract: Described herein are methods of treating, diagnosing, and/or prognosing a disease in a subject relating to detection of the glycosylation state of the antibodies present in the subject. In some embodiments, the disease can be an infection. In some embodiments, an antibody glycosylation state that is indicative of the presence of a disease, or a need for treatment of a disease can be reduced glycosylation (e.g., galactosylation, sialation, fucosylation, and/or afucosylated branched glycoforms).

Abstract: In accordance with an embodiment of the invention, there is provided a method for: a) high-throughput, multiplexed, affinity-based separation of proteins—especially low abundance proteins—from complex biological mixtures such as serum; and b) high-throughput, multiplexed, affinity-based separation of cells—especially rare cells—from complex biological mixtures such as blood or blood fractions. The separation of proteins or cells is achieved based on differential binding to affinity-capture beads of different sizes and then sorting the protein-bound or cell-bound beads using the concept of centrifugal-induced Dean migration in a spiral microfluidic device. This method enables continuous-flow, high throughput affinity-separation of milligram-scale protein samples or millions of cells in minutes after binding.