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Modulating the Tumor Immune Microenvironment via Targeting Regulatory Cells (TREGS) with Chimeric Antigen Receptor (CAR) T Cell Therapy
Screenshot 2026-08-21 at 12.52.53 AM
Innovative anti-GARP CAR T cells reprogram glioblastoma’s microenvironment, enhancing tumor killing with precision and safety

Background

Glioblastoma remains one of the most challenging cancers to treat due to its profoundly immunosuppressive microenvironment, characterized by regulatory T cell (Treg) infiltration, immune evasion pathways, and resistance to conventional therapies. Previous CAR T efforts have been hindered by a lack of tumor-specific targets, on-target/off-tumor toxicity, and poor immune cell trafficking into the brain. A novel approach is needed to overcome these barriers while minimizing systemic toxicity.

Overview

This invention features anti-GARP CAR T cells that harness a humanized scFv targeting free (uncomplexed) GARP, linked to an advanced CAR architecture incorporating optimized costimulatory and signaling domains. The CAR T cells are designed to selectively recognize and attack GARP-expressing glioblastoma cells, glioma stem cells, tumor-associated vasculature, and intratumoral Tregs, while sparing normal tissues such as platelets.

Preclinical validation has shown that these CAR T cells can inhibit tumor growth, enhance survival, and remodel the tumor immune environment by depleting suppressive Tregs and sustaining cytotoxic T cell activity, with no notable systemic toxicity.

Benefits

  • Dual-action targeting: Simultaneously attacks glioblastoma cells and immunosuppressive Tregs to improve efficacy.
  • Broader applicability: Targets GARP, which is expressed across diverse glioma subtypes, overcoming the limitations of more restricted CAR targets.
  • Reduced toxicity risk: Selective for free GARP, avoiding the off-tumor effects seen with agents targeting GARP–TGFβ complexes.
  • Local action: Designed for localized or regional infusion, minimizing systemic immune-related adverse events.
  • Enhanced persistence: Incorporates next-gen signaling domains to maintain CAR T cell activity and prevent exhaustion.
  • Addresses tumor recurrence: Targets glioma stem cells and tumor vasculature, key drivers of glioblastoma relapse.
  • Potential in multiple cancers: Preclinical data suggest broader utility across various solid and hematologic malignancies.

Details

Feagures

Documentation

Seeking

Partnering/licensing: Open to partnerships for further development and commercialization. Spinout potential: Strong novelty and clear clinical need support opportunities for startup formation. Strategic alliances: Ideal fit for immuno-oncology developers aiming to expand into solid tumor CAR T therapies.

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