The Rokita Lab

Research

Tool and Resource Development

We develop open source resources that can drive innovation and accelerate the discovery of novel therapeutic strategies for pediatric brain tumor research. Our newest tool, TAPESTRY, was developed by Dr. Patricia Sullivan, with tumor-enriched junction data generated by Dr. Ryan Corbett and AWS infrastructure support from Dr. Chao Di.

TAPESTRY
TAPESTRY Tumor Alternative PEdiatric Splicing visualizaTion and queRYing

An interactive web application and API for exploring tumor-enriched splice junctions across pediatric brain tumors. Explore it at tapestry.rokitalab.com.

OpenPedCanExpress
OpenPedCanExpress Pediatric tumor vs. normal expression explorer

A lightweight web application for comparing gene expression in pediatric tumors against normal tissue controls, with publication-ready plot export.

OpenPedCan
OpenPedCan The Open Pediatric Cancer Project

A harmonized open-source multi-omic dataset from > 6,000 pediatric cancer patients with > 7,000 tumor events across more than 100 histologies.

OpenPBTA
OpenPBTA The Open Pediatric Brain Tumor Atlas

A global open science initiative, co-led with the Childhood Cancer Data Lab, characterizing over 1,000 pediatric brain tumors.

AutoGVP
AutoGVP Automated Germline Variant Pathogenicity

A dockerized workflow integrating ClinVar and InterVar germline sequence variant classification, with a companion CAVATICA preprocessing app.

annoFuse
annoFuse BMC Bioinformatics, 2020

An R package and companion RShiny application to annotate, prioritize, and interactively explore putative oncogenic RNA fusions.

Medulloblastoma subtype classifier
Medulloblastoma subtype classifier PLOS Computational Biology, 2020

A transcriptome-based classifier that assigns medulloblastoma samples to WNT, SHH, Group 3, and Group 4 subtypes using gene expression ratios.

Integrative Multi-omics Approach

Our research harnesses the power of integrative multi-omics to unravel the complexities of pediatric brain tumors. By combining genomics, transcriptomics, and proteomics, we investigate how RNA splicing drives tumor formation and progression, and prioritize splice-derived peptides as candidate tumor-specific vulnerabilities for personalized immunotherapy. In collaboration with Dr. Sharon Diskin, we also characterize patient and parental germlines to pinpoint pathogenic variants that predispose patients to brain tumor development.

CLK1 splicing as a target in pediatric CNS tumors
CLK1 splicing as a target in pediatric CNS tumors Neuro-Oncology Pediatrics, 2026

Alternative splicing in pediatric central nervous system tumors highlights oncofetal candidate CLK1 exon 4.

Germline variation in pediatric CNS tumors
Germline variation in pediatric CNS tumors Nature Communications, 2025

Germline pathogenic variation impacts somatic alterations and patient outcomes in pediatric central nervous system tumors.

NRCAM microexon skipping in high-grade gliomas
NRCAM microexon skipping in high-grade gliomas Cell Reports, 2025

An NRCAM variant defined by microexon skipping is a targetable cell surface proteoform in high-grade gliomas.

Clinical Trial Support

We bring real-time bioinformatics to the clinic, analyzing patient tumor data to help guide personalized treatment strategies for children with brain tumors.

IMPACT: Immunotherapy for Malignant Pediatric Brain Tumors Employing Adoptive Cellular Therapy (IMPACT) is a phase 1 interventional study led by Dr. Brian R. Rood. It tests personalized tumor-specific antigen T cells (TSA-T), which target proteogenomically determined antigens from each patient’s own tumor, in children under 5 years of age with embryonal brain tumors. As a sub-investigator, Dr. Rokita led a team of bioinformatics scientists and engineers in developing and implementing the IMPACT bioinformatics workflows, which are available on GitHub.

SUPERNOVA-RBT: SUPERNOVA-RBT is a pilot interventional study led by Dr. Adriana Fonseca that tests real-time drug screening and genomic sequencing of tumor tissue taken during surgery, in children and young adults with relapsed ultra-rare brain tumors. A specialized tumor board uses the results to assign a personalized treatment plan. As a sub-investigator, Dr. Rokita oversaw the bioinformatic integration of genomic, transcriptomic, and drug-screen data, which places each tumor’s response to therapy in its molecular context.

Health Disparities

We are deeply passionate about exploring the impact of social determinants of health, race, ethnicity, and genetic-based ancestry on pediatric brain tumors. In collaboration with Dr. Cassie Kline, we identified significant associations between genetic ancestry superpopulations, CNS tumor histologies and molecular subtypes, patient survival, and upfront treatment approaches.

Genetic ancestry associated disparities
Genetic ancestry associated disparities Neuro-Oncology, 2025

Distinct associations of genetic ancestry-based superpopulations exist within pediatric CNS tumor histologic and molecular subtypes and correlate with survival outcomes and treatment.