Brief Description
Collagen III embedded biomaterial is predicted to decrease collagen network signatures associated with aggressive tumor behavior and suppress tumor progression and metastases at the site of tumor resection.
Technology Overview
In cancer patients, mortality results primarily from metastatic disease, and the tumor microenvironment plays a critical role in this process. One component of the tumor stroma that surrounds tumor cells is Collagen III (Col3) and Dr. Volk has discovered that Col3 is a critical regulator of migration and invasion of cancer cells, wherein higher levels of Col3 create a non-permissive tumor microenvironment for cancer metastases.
Dr. Volk’s in vivo genetic studies demonstrated that reduction of Col3 led to increased tumor growth and metastases in a murine breast cancer model, most likely due to increased myofibroblast density and collagen alignment, resulting in a pro-carcinogenic stroma. Conversely, Col3 containing gels significantly inhibited the migration and invasion of human cancer cell lines in vitro. In vivo, reduced levels of Col3 increased breast cancer cell proliferation and diminished apoptosis in a murine model.
Importantly, addition of Col3 to human breast cancer cells injected in a xenograft model increased apoptosis, suggesting that Col3 can directly kill tumor cells. Previous studies in the Volk laboratory show that Col3 is critical for a regenerative healing response. Therefore, Col3 containing biomaterials are expected to successfully limit aggressive behavior (rapid recurrence and metastasis) of cancer cells in vivo following resection while simultaneously promoting healing after surgery.
• Promote healing following surgical resection while limiting local recurrence and potential metastasis
• Easily inserted after tumor resection; no need for a separate procedure
• Incorporates 3 dimensional structure of Col3 in the biomaterial, which is critical to its function
由于技术保密工作限制,技术信息无法完全展现,请通过邮箱或短信联系我们,获取更多技术资料。
mortality results primarily
increased myofibroblast density
gels significantly inhibited
regenerative healing response
simultaneously promoting healing
