TCRF
Funded Research

  • Cold Atmospheric Plasma for the Treatment of NF1-related Peripheral Nerve Sheath Tumors
    $100,000 Angie and Michael David Career Development Grant

    Malignant peripheral nerve sheath tumors (MPNSTs) are aggressive soft-tissue sarcomas for which the only effective therapy is surgery and NF1 patients have a greater risk of developing these tumors from plexiform neurofibromas. These tumors are collectively known as Peripheral Nerve Sheath Tumors (PNSTs). One area of active research in plasma medicine is the use of cold atmospheric plasma (CAP) in treating tumors. In this proposal, we want to investigate the role of CAP in treating NF1-related PNSTs.

    Brian Na, MD
    University of California, Los Angeles
  • Epigenetic control of stem cell plasticity in colorectal cancer development and recurrence
    $100,000 Tower Career Development Grant

    Colorectal cancer (CRC) is the second-most lethal cancer in the United States causing 50,000 deaths annually. Cancer is caused by alterations in genetic material called mutations, however correcting such changes remains unfeasible. Additionally, non-genetic structural and chemical changes are essential for cancer to gain aggressive growth potential and evading therapy. Although such non-genetic changes are essentially reversible using therapeutic drugs, details of how and when they occur during CRC progression remains unknown. Using cutting-edge human CRC and mouse model systems, we will characterize the non-genetic changes during CRC growth and identify novel factors that can be targeted for innovative therapies.

    Unmesh Jadhav, PhD
    University of Southern California
  • Single Cell Spatial Analysis of DLBCL to Develop Biomarkers and Optimize CAR T Therapy
    $100,000 Tower Career Development Grant

    Recently we have discovered ways to reinvigorate the immune system to fight cancer. However, in immune cancers such as lymphoma, the line between cancer and the immune system is blurred. This presents an opportunity to learn how immune cells attack cancer under complex conditions, which is called the tumor microenvironment. I propose to use a spatial protein analysis technology to identify clues, not just in cancer cells but also in the embedded immune cells, that predict cancer outcomes. Further, I will study how genetically engineered anti-tumor immune cells operate in the tumor microenvironment to improve their efficacy.

    Alexander Xu, PhD
    Cedars-Sinai Medical Center
  • Performance of hypermethylated circulating tumor DNA’s in colorectal cancer
    $100,000 Rosen Cherney Tower Golf Tournament Research Grant

    Measuring DNA produced by colorectal cancer (CRC) in blood (ctDNA) is a new method to detect return (recurrence) of CRC. We developed an in-house, blood-based ctDNA test that is less costly and easier to apply in practice. We will compare our ctDNA test’s performance to a commercial ctDNA test for detecting recurrence in patients who no longer have CRC and tumor growth or spread in patients with existing CRC. We will also analyze our test’s potential to predict recurrence in localized rectal cancer, which can be helpful to identify candidates who can be spared from unnecessary surgery (ostomy bags).

    Jun Gong, MD
    Cedars-Sinai Medical Center
  • Sensitizing the tumor immune microenvironment of breast cancer
    $100,000 Howard and Reva Colover Trust Career Development Research Grant

    Breast cancer is the second leading cause of cancer-related death in women. Immunotherapies harness the body’s immune system to fight cancer, holding great promise to prevent recurrence and prolong survival. Immunotherapies have been less effective in patient’s with breast cancer in part, due to the recruitment of suppressive cells that prevent an anti-tumor effect. We will investigate strategies to decrease suppressive signals within the tumor, allowing anti-tumor signals to successfully eliminate tumor growth. We will also determine differences in suppressive signals between early versus metastatic breast cancers to improve response to immunotherapy for patients with all stages of disease.

    Evanthia Roussos-Torres, MD, PhD
    University of Southern California
  • Harnessing the Hippo signaling pathway to counteract chemoresistance
    $100,000 Cancer Free Generation Career Development Research Grant

    Cisplatin-based chemotherapy has been widely used for treating a variety of solid tumors including breast, lung and ovarian cancers. Although initial therapeutic success is achieved, a number of tumors are found to be intrinsically resistant or gradually develop resistance to cisplatin treatment, which greatly limits its therapeutic potential. Notably, cisplatin belongs to the platinum compound family, which are known as the only heavy metal containing drugs used for chemotherapy. Our proposed research will focus on a growth-related signaling pathway, named the Hippo pathway in regulating heavy metal-induced stress response, which results in a unique mechanism accounting for the cisplatin-based chemo-resistance.

    Wenqi Wang, PhD
    University of California, Irvine
  • Identifying novel therapeutic targets in circular RNAs that bolster the sarcoma-protective microenvironment
    $100,000 Tower Career Development Grant

    To identify circular RNAs abundantly expressed in Undifferentianted Pleiomorphic Sarcoma and illuminate how circRNAs catalyze cancer-promoting and drug-resisting conditions in the microenvironment surrounding tumor cells. In particular, we will study how circRNAs merge with RNAbinding proteins to powerfully modulate tumor cell secretions, which in turn forge a tumor-protective niche that renders many existing therapies ineffective against UPS. Finally, we will use newly developed molecular techniques to manipulate circRNAs in tumor cells, paving the way to design transcriptional therapies against UPS, and to use circRNAs to refashion the tumor microenvironment, rendering this intractable disease newly vulnerable to previously failed therapies.

    Jlenia Guarnerio, PhD
    Cedars-Sinai Medical Center
  • Functional Epigenomics of Transgenic Cellular Immunotherapies for Cancer
    $100,000 Tower Career Development Grant

    Cellular immunotherapies, in which a patient’s immune system is genetically engineered to target cancer cells, are revolutionizing cancer treatment. However, these engineered cells do not always persist long-term in patients, which can lead to disease relapse. I propose that the DNA structure of these engineered immune cells changes over time, ultimately impairing the expression of receptors which target the cancer cells, and that these changes can lead to treatment failure. I will examine genetically engineered immune cells from patients receiving them for cancer treatment for this phenomenon, and correlate the DNA structural changes with engineered receptor expression and therapeutic response.

    Theodore Scott Nowicki, MD, PhD
    University of California, Los Angeles
  • Use of Metformin for Prevention of Clonal Progression to Therapy-Related MDS/AML
    $100,000 Tower Career Development Grant

    Clonal hematopoiesis describes a common pre-cancerous condition where blood stem cells gain mutations in cancer-associated genes that allow them to grow and expand abnormally. This condition occurs more frequently with increasing age and after chemotherapy for solid tumors where it is a strong risk factor for developing secondary blood cancers. Inflammation after chemotherapy exposure is known to favor proliferation of mutant blood stem cells. We are investigating the anti-inflammatory effects of metformin on mutant blood stem cell behavior and how the presence of clonal hematopoiesis impacts clinical outcomes in women who received curative-intent chemotherapy after surgery for advanced breast cancer.

    Soo Park, MD
    University of California, San Diego
  • Nanosystems to accelerate clinical translation and generation of cellular immunotherapies
    $100,000 Randi and Warren Grant Research Grant

    For these patients, new treatments are being developed that recruit cells of the immune system to attack the cancer. To turn on these defenses, we need to deliver genetic instructions to about two hundred million immune cells, efficiently and safely. Unlike other strategies, these cells no longer need to come from the patients, who are already weakened. We have invented an engineering solution to do so and we are testing and optimizing it so that we can make this treatment widely available to patients and their doctors soon.

    Steven Jonas, MD, PhD
    University of California, Los Angeles

Impact begins here,
and it starts with you.

All of our research is made possible through the generous support of people like you.

Will you join us in the fight for a future free from the burden of cancer?

donate to research today

    I would like to learn more about:
    We respect your privacy, and will keep your personal information private and secure.