Breakthrough Research Could Lead to Targeted Cancer Therapies

Fri 27th Jun, 2025

Recent research led by scientists at Touro College of Pharmacy is providing new insights that may significantly enhance targeted cancer therapies. This study, published in Nature Communications, focuses on steroid hormone receptors (SHRs), which play a crucial role in the progression of various cancers such as breast, prostate, and ovarian cancer.

Cancer cells are known to exhibit elevated levels of SHRs, making them a prime target for therapeutic interventions. However, existing anti-hormone treatments often result in undesirable side effects because they indiscriminately affect SHRs in both cancerous and healthy tissues. This can lead to complications such as increased risk of uterine cancer in patients undergoing treatment for breast cancer, as the therapies inadvertently enhance estrogen activity in non-target tissues.

The objective of the research is to refine SHR-based therapies by pinpointing their actions to specific organs and genes, thereby minimizing side effects. A deeper understanding of SHR structures and their interactions with other proteins is essential for achieving this goal.

The study provides a pioneering look at the structure of SHR complexes, which could facilitate the design of drugs that selectively target specific tissues. The researchers utilized advanced proteomics technology to identify structural differences in SHRs, which can lead to variations in how hormones and medications affect different cells.

This research marks a significant advancement in the field of cancer treatment, offering hope for the development of medications that effectively disrupt SHR signaling pathways without causing serious side effects. The ability to tailor treatments more precisely could lead to improved outcomes for patients with endocrine cancers, making this a pivotal moment in oncological research.

In summary, the findings from this study may revolutionize the approach to treating cancers influenced by steroid hormones, potentially leading to safer and more effective therapies for patients.


More Quick Read Articles »