Active clinical trials for "Breast Neoplasms"

The study is designed to assess the treatment outcomes following treatment with letrozole plus metronomic capecitabine in patients with hormone receptor-positive, Her2-negative advanced breast cancer who have not received prior systemic anti-cancer therapies for their recurrent /metastatic disease.

This clinical trial studies the feasibility of simulating forest therapy using humidified wood or fragrant oils, in improving immune cells, like natural killer cells, number and activity, and their downstream proteins, perforin and granulysin in patients with stage I-III breast or prostate cancer who completed chemo- and/or radiation therapy. The knowledge gained from this study may help cancer patients who have compromised immune systems and who also cannot participate in outdoor activities like exercise or forest walks.

This stage IV trial examines how a mutation in HSD3B1 (1245C) gene affects treatment of stage I-III breast cancer. This trial may help researchers determine if mutations in HSD3B1 decreases the efficacy of aromatase inhibitor therapy such as letrozole. Letrozole may stop the growth of cancer cells by blocking some of the enzymes needed for cell growth.

Cancer and depression commonly occur together, and each worsens the other. We conducted a large psychotherapy study treating depression in breast cancer patients, showing that psychotherapy lowers symptoms. Surprisingly, no studies have compared depression-focused psychotherapy to antidepressant medication for patients with breast cancer and depression. We applied to the National Cancer Institute for a large, cross-national grant. Reviewers asked us to first demonstrate that patients would accept either psychotherapy or medication as treatment. Thanks to funding from the Columbia Herbert Irving Cancer Center, we will test this study approach. We will randomly assign 20 patients with both non-metastatic breast cancer and major depression to 12 weeks of tele-therapy (by Zoom) with either interpersonal psychotherapy or a serotonin reuptake inhibitor. We expect patients in both treatments to report improvement in depression symptoms. We will also measure C-reactive protein, a blood test of inflammation elevated in both cancer and depression, which may predict medication response.

Inflammation has been consistently associated with psychoneurological symptoms (PNS) among breast cancer survivors (BCS). Evidence supporting interventional strategies promoting symptom-self management in reducing inflammation-induced PNS in BCS is limited. Current guidelines for BCS encourage the consumption of foods rich in omega-3 fatty acids. The omega-3 fatty acid docosahexaenoic acid (DHA), abundantly available in fish, has a role in inflammatory downregulation. Low dietary DHA has been associated with inflammation and fatigue in BCS. Dietary planning targeting increased fish consumption thereby reducing red and processed meats are components of the major nutritional recommendations for BCS. A critical gap exists in knowledge regarding interventions promoting adherence to dietary guidelines in BCS supporting PNS self-management. This investigation uses personalized meal planning among BCSs (n=150) who are 1-2 years post-treatment for early-stage breast cancer and experiencing PNS (pain, fatigue, depression, sleep disturbance, stress) to evaluate the feasibility of a personalized meal planning approach in supporting adherence to current dietary guidelines for BCS. As a first step in this program of research, we will evaluate the feasibility of an personalized meal planning approach in promoting adherence to dietary guidelines for BCS through evaluating the feasibility of a personalized meal planning approach in a cohort of BCSs with respect to recruitment, group allocation, salivary inflammatory quantification and receptivity to and adherence with dietary interventions. This investigation will also contribute to a preliminarily evaluation of the efficacy of high or low fish diet in reducing inflammation (IL-1β, IL-6, TNF-a) and PNS symptoms. Nationally, there is a priority for the development of personalized health strategies supporting self-management of adverse symptoms. This investigation focused on PNS in BCS is an initial step in generating new knowledge in efficacious approaches toward guiding decisions on dietary behavior change strategies that are personalized, cost-effective, and sustainable.

This Phase III trial will examine the efficacy of computerized cognitive training (Brain HQ) compared to the attention control on perceived cognitive impairment post intervention as measured by the FACT-Cog PCI scale.

A Study of XMT-2056 in advanced/recurrent solid tumors that express HER2.

This multi-center, open-label, phase II randomized controlled trial is to evaluate the efficacy of docetaxel(T) combined with metronomic cyclophosphamide/capecitabine (mCX) followed by fluorouracil /epirubicin/cyclophosphamide (FEC) versus T followed by FEC as neoadjuvant chemotherapy in treating women with triple negative breast cancer (TNBC), and to study the anti-tumor immune effect of metronomic neoadjuvant chemotherapy. 186 stage M0 TNBC patients who had a primary tumor > 2cm by imaging or an axillary lymph node > 2cm by imaging are randomly enrolled to receive neoadjuvant T combined with mCX (3 cycles) followed by FEC (3 cycles) or T (3cycles) followed by FEC (3 cycles) before surgery. The primary end point is pathological complete response (pCR) rate, and the secondary end points include: clinical response rate, toxicities, breast-conserving rate, Ki67 and CD31 reduction rate, changes in the percentages of peripheral blood or tumor microenvironmental regulatory T cells (Treg), T helper cells (Th), CD8+ T cell, and tumor-specific CTL, and changes in tumor microenvironmental immune cytokines. Once there is a significant statistical difference in terms of pCR rate between two groups, 3-year disease-free survival (DFS) and 3-year overall survival (OS) will be included in the secondary end points. The aims of this study are to determine whether the neoadjuvant T combined with metronomic CX followed by FEC can significantly increase the pCR rate in TNBC with acceptable toxicity, and to explore the anti-tumor immune effect of metronomic neoadjuvant chemotherapy.

Atrophic vaginitis is a condition in which the skin lining of the vagina and labia becomes thin and symptoms develop including vaginal itching, vaginal discomfort and dyspareunia. These can significantly affect women's comfort, sexuality and quality of life. Treatment for this condition includes estrogen given in pill form, commonly known as hormone replacement therapy and local estrogen treatments, such as vaginal estrogen creams and topical vaginal lubricants. Unfortunately, systemic estrogen is contraindicated in many women with breast cancer. Some providers also feel that women who are taking aromatase inhibitors for their breast cancer should also not use local estrogens as several small studies suggest that these treatments might effect estrogen levels and thus might change how effective the aromatase inhibitors are. If these women choose not to use any form of estrogen therapy there symptoms may not be well controlled with other treatments. The investigators hypothesize that a vaginal testosterone cream might be a safe and effective alternative treatment for these women. This small study is intended to test the hypothesis that testosterone cream will not increase estrogen (estradiol) levels and that it will improve the symptoms of atrophic vaginitis including vaginal dryness, vaginal itching and pain with intercourse. The investigators will enroll women in the trial who are taking an aromatase inhibitor and have the symptoms mentioned above. They will receive a testosterone cream which will be applied vaginally once a day for 28 days. If good results are found with a prespecified dose of testosterone, a lower dose will be tested in the next group of women enrolled.

The purpose of this study is to collect data on the safety and effectiveness of 2nd generation designer T cells in patients with breast cancer. Designer T cells are prepared by collecting white blood cells from the participant, and then modifying these cells in the laboratory so that they recognize the tumor antigen (CEA). These modified cells are then given back to the participant so that they can attack and kill tumor cells.