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Yale School of Medicine

Grants and Contracts Administration47 College Street, Suite 203
New Haven, CT 06510-3209
United States

Mentor Name: Ranjit Bindra

Yale School of Medicine

Childhood leukemia is a devastating cancer and many current treatments are not effective for certain aggressive forms of the disease. This project aims to uncover how specific cancer-causing genes alter normal cell processes to drive leukemia. In particular, we are investigating how these changes cause cells in very young infants to become cancerous. By understanding these mechanisms, we can identify new waysto block the cancer’s growth.

Background
Pediatric brain tumors often are treated with high doses of chemotherapy and radiation therapy. These treatments are effective but lead to significant late effects on long-term survivors.

Background

Fanconi anemia is a childhood disease associated with impaired bone marrow function, developmental retardation, premature aging and early onset of cancer limiting the lifespan of patients to 35 years. Fanconi anemia results from impairment of one or more steps in the preventive pathway that removes aberrant DNA structures, which are caused by environmental stresses like pollutants, toxins in diet, etc.

Background


Diffuse Intrinsic Pontine Glioma (DIPG) is a rare but lethal childhood tumor with no known effective treatment. Given its location in the brainstem, surgical resection is not feasible, and the only available treatment is radiation therapy, which is palliative in nature. As such, better therapies are needed which can be combined with radiation therapy for durable disease control. Remarkably, there are limited platforms suitable for use in DIPG screening studies to identify such agents.

“My POST program experience was the first opportunity I had to work completely independently in the lab….. both my successes and my disappointments were my responsibility, and I became more invested in my research as a result.” –Kaoru Takasaki

Primary brain tumors are one of the most common solid neoplasms in children, and they are a leading cause of cancer-related mortality. In particular, pediatric high grade gliomas are clinically devastating tumors, with associated 5-year survival rates of less than 20%. The current treatment for these cancers begins with surgical removal of the tumor, followed by radiation therapy (RT) and chemotherapy. RT consists of ionizing radiation (IR), which kills residual tumor cells by inducing DNA breaks in the genomes of these cells.

The long-term goal of this research is to identify therapies for the aggressive translocation renal cell carcinomas that affect children and young adults. A majority of these tumors present at advanced stage and half of the patients with translocation renal cell carcinoma will parish from the cancer. Thus, there is an urgent need to define therapeutic strategies to treat these cancers. To accomplish this goal, we propose to study the microphthalmia (MiT) family genes TFE3, TFEB, and MITF that are known to drive these cancers.

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