Anjana Rao

This study shows that TET loss of function promotes aneuploidy, particularly chromosome 17 trisomy, which provides a proliferative advantage in iNKT cells and mESCs.

This study identifies IκBδ as a factor that enhances CD8 T cell accumulation and effector functions in solid tumors by overcoming constraints on T cell survival and cytotoxic capacity.

This study identifies CTCF as a strong G4 DNA binder and shows its role in genome topology and gene expression through chromatin looping and CTCF occupancy.

The paper identifies DNA hexanucleotide sequences that determine DNA methylation maintenance across cell divisions, revealing their role in biological age and cancer progression.

The paper shows that targeted degradation of NR4A proteins in T cells reverses exhaustion by restoring effector function and reducing inhibitory receptors.

This study shows TET2 regulates 5hmC deposition in adult neural stem cells, balancing stemness and differentiation through distinct epigenetic programs.

The paper shows TET3 and MECP2 interact to regulate neuronal maturation, with TET3 critical for functional development and MECP2 inhibiting TET3 activity.

This study shows that loss of TET function in Treg cells leads to ex-Treg cells that differentiate into Tfh cells, promoting autoantibody production and autoimmune disease.

This study links increased transposable element (TE) expression in SLE patients to IFN responses, showing strong correlations with disease activity and splicing alterations.

This study shows that OGT inhibits TET activity, preventing DNA demethylation and transposable element expression in heterochromatin.

This study shows that mutant ASXL1 proteins disrupt heterochromatin integrity in clonal hematopoiesis and CMML by reducing H3K9me2/3 and H2AK119Ub, leading to increased transposable element expression.

This study shows that 5hmC-mediated active demethylation is essential for neuronal differentiation and function in Purkinje cells.

This study shows that loss of TET2 and TET3 in regulatory T cells leads to immune dysfunction and inflammation in mice.

This study uses live-cell imaging to show MeCP2 has unique diffusion and chromatin binding kinetics in neurons, distinct from transcription factors and histones.

This study shows TET enzymes enhance Aicda expression by depositing 5hmC at its superenhancer, promoting chromatin accessibility and CSR in B cells.