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The technology involves the discovery and development of novel compounds that inhibit the plasmodial surface anion channel (PSAC), a promising drug target for malaria treatment. These compounds have been identified through high-throughput screening as specific and potent inhibitors of PSAC, effectively killing malaria parasite cultures by blocking nutrient acquisition from human plasma. Importantly, the compounds exhibit drug-like properties and show no cytotoxicity to other cells.

This technology encompasses the discovery of broadly neutralizing antibodies against HIV-1, derived from the CAPRISA Donor CAP 256. These antibodies target the V1V2 epitope of the virus envelope and exhibit a high level of neutralization, particularly against Clade A and Clade C subtypes.

The bivalent rabies and Lassa virus vaccine represents a significant advancement in vaccine development, offering dual protection against two deadly viral diseases. By combining antigens from both viruses, this vaccine has shown promising immunogenicity in mice and efficacy in reducing viral yield in a relevant animal model.

The technology involves the development of a probiotic-based inhalational therapeutic for the prevention and treatment of acute respiratory virus infections. This innovative approach utilizes live or heat-inactivated cells of Lactobacillus plantarum, administered directly to the respiratory mucosa. This method has shown significant protection against lethal outcomes of respiratory virus infections by suppressing virus-induced proinflammatory cytokines.

This technology involves the screening of a library of 290 FDA-approved or clinically advanced compounds for their antiviral activity against Middle Eastern respiratory syndrome coronavirus (MERS-CoV) and severe acute respiratory syndrome coronavirus (SARS-CoV).

The discovery of the S1-4-A09 antibody and its A80P derivative from a survivor of Ebola virus disease represents a significant advancement in the development of therapeutics against Ebola virus. These antibodies, isolated using innovative techniques, demonstrate potent antiviral activities in vitro and have shown improved stability and manufacturing feasibility compared to existing antibodies.

The Ribopuromycylation (RPM) technology, developed by Dr. Jon Yewdell and Dr. Alexandre David, offers a powerful and universal method for visualizing and studying protein translation within cells. RPM involves the use of puromycin, a molecule that mimics a tyrosyl-tRNA and terminates translation by becoming covalently incorporated into the nascent protein chain's C-terminus within the ribosome's A site. This technique enables the immobilization of puromycylated nascent protein chains on ribosomes when chain elongation inhibitors like cycloheximide or emetine are utilized.

The technology offers a novel and efficient method for inducing targeted DNA recombination using a tripartite fusion protein, LFn-NLS-Cre, in combination with anthrax toxin protective antigen (PA). This system enables precise genetic manipulation in cells carrying a gene flanked by loxP sites, allowing for specific recombination events.

The technology pertains to the development of furin-deficient Chinese Hamster Ovary (CHO) cells, specifically the CHO FD11 cell line, which plays a pivotal role in proteolytic maturation of various proteins critical for physiological processes and pathogen virulence. By inhibiting furin, a protease involved in the activation of many important proteins and pathogens, these modified cells provide a unique platform for research into viral infections and potential therapeutic interventions.

The technology pertains to a novel multivalent peptide tolerogen designed for the therapeutic treatment of Multiple Sclerosis (MS), a condition where the immune system erroneously attacks the central nervous system. This advanced therapeutic strategy involves a fusion-peptide composed of myelin oligodendrocyte glycoprotein (MOG), myelin-basic protein (MBP), and myelin proteolipid protein (PLP), along with myelin-associated glycoprotein (MAG).