Umoja Biopharma Inc. performed preclinical studies to evaluate the antitumor activity of UB-VV500, an off-the-shell lentiviral vector CAR T-cell product. It is based on its Vivovec technology and designed to engineer fully human anti-B-cell maturation antigen (BCMA)/G protein-coupled receptor class C group 5 member D (GPRC5D) dual-targeting chimeric antigen receptor (CAR) T cells, for the potential treatment of multiple myeloma (MM).

Researchers at the University of London and collaborating institutions have developed a gene and cell therapy approach that enables sustained systemic frataxin protein delivery, improving motor performance and tissue pathology, and supporting a promising translational strategy for long-term disease stabilization in Friedreich’s ataxia patients.

Cell replacement therapy is currently being investigated to restore the retinal pigment epithelium (RPE) layer and treat vision decline due to dry age-related macular degeneration (AMD). The Neural Stem Cell Institute and collaborating institutions developed an approach to RPE replacement using an adult RPE stem cell source derived from the RPE layer of donated cadaver eyes.

The American Society of Gene & Cell Therapy (ASGCT) and Orphan Therapeutics Accelerator (OTXL) have announced the public launch of CGTxchange, an AI-enhanced clearinghouse and marketplace built to help reactivate cell and gene therapy programs that have been shelved despite strong scientific and clinical evidence.

Circular RNA (circRNA) is not a new concept, but it is a novel strategy in the field of gene and cell therapy. While mRNA vaccines have revolutionized medicine, this RNA fragment without free ends surpasses their performance in both efficacy and durability, bringing it to the attention of several pioneering companies. The latest advances in circRNA presented at the 29th Annual Meeting of the American Society of Gene and Cell Therapy (ASGCT) clearly surpass the performance achieved with linear mRNA.

A new mRNA and lipid nanoparticle (mRNA-LNP) platform could selectively reprogram in vivo cytotoxic effector T cells (Teff), the cells responsible for eliminating infected or tumor cells. To achieve this, scientists at the University of Pennsylvania conjugated LNPs with fractalkine, a molecule that binds to the CX3CR1 receptor, which is a marker of Teff cells. Using this strategy, the researchers delivered an mRNA encoding new proteins such as IL‑2 or human CD62 L‑selectin, opening the door to temporarily reprogramming these cells within the body, both in the blood and in lymphoid tissue, where they reside and become activated.

A new mRNA and lipid nanoparticle (mRNA-LNP) platform could selectively reprogram in vivo cytotoxic effector T cells (Teff), the cells responsible for eliminating infected or tumor cells. To achieve this, scientists at the University of Pennsylvania conjugated LNPs with fractalkine, a molecule that binds to the CX3CR1 receptor, which is a marker of Teff cells. Using this strategy, the researchers delivered an mRNA encoding new proteins such as IL‑2 or human CD62 L‑selectin, opening the door to temporarily reprogramming these cells within the body, both in the blood and in lymphoid tissue, where they reside and become activated.

South Korea’s Ministry of Food and Drug Safety (MFDS) approved Curocell Inc.’s Rimqarto (anbalcabtagene-autoleucel; anbal-cel) April 29 as the first homegrown CAR T-cell therapy to treat patients with advanced diffuse large B-cell lymphomas.

South Korea’s Ministry of Food and Drug Safety (MFDS) approved Curocell Inc.’s Rimqarto (anbalcabtagene-autoleucel; anbal-cel) April 29 as the first homegrown CAR T-cell therapy to treat patients with advanced diffuse large B-cell lymphomas.

A major challenge in tissue engineering is not only achieving the correct cellular organization of an engineered tissue, but also expanding it to a clinically useful size after implantation. Researchers from the Wyss Institute at Harvard University have developed a synthetic biology platform that genetically programs tissues to grow large organ implants on demand. Building on a 2017 study suggesting engineered liver tissues could respond to regenerative signals released after injury, the researchers set out to identify and harness those cues.

“If we could figure out what those signals were, we could synthetically drive these factors locally in an implant to control its growth ourselves,” first author Amy Stoddard told BioWorld. Stoddard is a postdoctoral researcher at the Wyss Institute.