Cancer Cell Culture
Cancer Cell Culture - Related Videos
03:19
Co-culturing BC Cells: Culturing Breast Cancer Cells with Bone Fragments to Study Cancer Cell Proliferation
0 Views •
2023
This video describes the culturing of breast cancer cells adjacent to femur bone explants to measure cancer cell proliferation and colonization in a human bone tissue explant model system.
04:41
Magnetically Bioprinted 3D Spheroid Co-cultures: A Method for Co-culturing Cancerous Cells and Fibroblasts
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2023
This video explains the 3D magnetic bioprinting of co-cultured pancreatic cancer cells and fibroblasts. Pancreatic cancer cells and activated pancreatic fibroblast cells are co-cultured and magnetized using a biocompatible nanoparticle assembly, to generate spheroids, under the influence of magnetic forces.
03:40
Metastatic Cancer Cell Colony Isolation from Chicken CAM: A Procedure to Isolate Cancer Cells from Shell-less Egg Cultures
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2023
In this video, we describe the isolation of metastatic cancer cell colonies from the chicken chorioallantoic membrane (CAM) using shell-less egg culture. This method helps screen for factors that may be responsible for cancer metastasis.
05:48
3D Co-culture with Direct Interaction: Co-culturing Cancer Cells with Monocytes to Study Their Interaction
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2023
This video describes the 3D co-culture of breast cancer cells with monocytes to study their interaction in an extracellular matrix extract (ECME) based environment. This method helps in studying specific features such as collagen degradation, immune cell recruitment, and cell invasion.
12:16
Patient Derived Cell Culture and Isolation of CD133+ Putative Cancer Stem Cells from Melanoma
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Cited by 22 •
2013
This article describes the preparation of freshly obtained melanoma tissue into primary cell cultures, and how to remove contaminations of erythrocytes and fibroblasts from the tumor cells. Finally, we describe how CD133+ putative melanoma stem cells are sorted from the CD133- bulk using Magnetic Activated Cell Sorting (MACS).
FAQs
The growth format shapes what researchers can observe. In cancer cell culture, tumor-derived cells may attach to a surface or remain in suspension, while nutrient-rich media and regulated temperature and gas support continued propagation. Maintaining sterility prevents uncontrolled contamination from disrupting the model. These controlled conditions make cellular responses to experimental treatments easier to examine consistently.
Comparing tumor-derived cultures with normal cells helps distinguish cancer-associated behavior from general cell behavior. Differences in proliferation, survival, signaling, or invasion can then be interpreted as potentially tumor-specific rather than simply consequences of culturing cells outside the body. This comparison strengthens cancer research models by linking observed cellular traits to disease-related mechanisms.
Defined treatments can be evaluated by examining changes in cell proliferation, survival, signaling, and invasion. Measuring several responses provides a broader view than relying on growth alone, because a treatment may influence how cells survive or communicate as well as how rapidly they multiply. These observations help characterize anticancer activity and treatment resistance.
Maintaining a cancer cell culture requires nutrient-rich media, regulated temperature, controlled gas conditions, and sterility. These factors support continued cell propagation and help keep the experimental environment consistent. Researchers also account for whether the cells attach to a surface or grow in suspension, since the growth format is part of the culture setup.
Researchers expose cultured tumor-derived cells to defined anticancer treatments and examine outcomes such as proliferation, survival, signaling, and invasion. The resulting responses can indicate whether a treatment affects cancer-related cellular behavior. Repeated evaluation in this controlled model supports drug screening and helps investigate why some cells remain less responsive, a pattern associated with treatment resistance.
Cancer cell culture provides a tractable setting for connecting cancer biology with potential therapeutic research. Findings from cultured cells can support investigation of disease mechanisms, treatment resistance, anticancer drug responses, and disease-model development. Because researchers can compare tumor-derived and normal cells under defined conditions, the approach helps inform broader translational studies in cancer research.