Research highlights blog
These stories highlight how our models and discoveries are shaping cancer immunology and tolerance research.
KLF2 protects T cells from exhaustion
In chronic infection and cancer, T cells can become “exhausted” and lose their ability to fight. In our Science paper, we discovered that the transcription factor KLF2 helps preserve stem-like T cells, which are the critical population that responds to immunotherapy. This finding identifies KLF2 as a key safeguard of effective anti-tumor immunity.
How PD-1 maintains tolerance in skin
Using engineered antigens in the skin, we discovered how the PD-1 pathway prevents destructive T cell responses in healthy tissues. This paper in Nature provided insight into the same pathways that drive immune-related side effects of checkpoint therapy.
Saying HELLO to TFH cells
Why are TFH cells important in cancer? In this Cell paper we developed the HELLO model to show that B cells and TFH cells can play a surprising role in helping CD8 T cells fight cancer. By producing IL-21, TFH cells boosted the cytolytic activity of CD8 T cells, revealing a new layer of cooperation between immune cells inside tumors.
Organization of tertiary lymphoid structures
We showed that tertiary lymphoid structures (TLS) form specialized niches that bring together T cells, B cells, and stromal cells. These findings highlight TLS as a developmental feature of cancer — and a key site of anti-tumor immunity.
Tumor-draining lymph nodes as reservoirs for T cells
In lung cancer models, we demonstrated that the tumor-draining lymph node serves as a reservoir for stem-like CD8 T cells. These cells replenish exhausted populations in tumors and are essential for effective immunotherapy.
Engineering immunity with the NINJA system
In this Nature Biotechnology paper, we created the NINJA mouse, a model that allows precise, tunable antigen expression in vivo. This tool has become a foundation for studying how T cells respond to tumors, infections, and tolerance in a controlled way.