Extracellular matrix-derived mechanical force governs breast cancer cell stemness and quiescence transition through integrin-DDR signaling | Signal Transduction and Targeted Therapyt https://t.co/EBX9pIiXZt
Extracellular matrix-derived mechanical force governs breast cancer cell stemness and quiescence transition through integrin-DDR signaling.
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Jun 2023 – Oct 2023Where it's discussed
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AI synopsis
What people are saying
Many discussions use phrases like 'important insights' and 'potential for targeted therapies,' indicating appreciation of the study's significance, while some posts mention how understanding matrix forces could impact tumor treatment. The tone remains analytical but not overly technical, emphasizing the relevance of the findings without deep technical debates.
Most discussions recognize the significance of mechanical forces and signaling pathways in cancer progression, showing general support for the study's findings.
Participants exhibit a modest level of curiosity, often highlighting the importance of cellular environments but not delving deeply into technical details.
Posts tend to reflect surface-level engagement, such as noting the study's implications or expressing opinions without extensive critique or discussion.
The discussions suggest the research could influence future studies or clinical approaches, but the overall tone remains cautious and preliminary.
Abstract in brief
- ECM-derived mechanical forces influence breast cancer cell behavior by regulating their stemness and quiescence through integrin DDR signaling pathways, with specific force levels either promoting stem-like properties or inducing cell dormancy.
- Experiments using 3D matrices and analyses of patient data showed that moderate mechanical forces activate pathways that enhance tumor growth and cancer stemness, while higher forces can push cells into a dormant, quiescent state, impacting tumor progression.
- A specific ECM signature related to matrix components was developed, which can predict patient prognosis, highlighting the importance of mechanical forces in tumor development and offering potential in clinical outcomes assessment.
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Mechanical Forces from Extracellular Matrix Regulate Breast Cancer Cell Behavior
Extracellular matrix-derived mechanical forces influence breast cancer cell stemness and quiescence through integrin DDR signaling, affecting tumor progression and patient prognosis.
Extracellular matrix-derived mechanical force governs breast cancer cell stemness and quiescence transition through integrin-DDR signaling | Signal Transduction and Targeted Therapyt https://t.co/EBX9pIiXZt