Cell Culture Compatibility
Cell Culture Compatibility - Related Videos
09:40
A Scanning Electron Microscopy-Compatible Optical Imaging Method for Mesoscopic All-Cell Brain Mapping
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2026
We introduced a novel imaging technique called Optical Multilayer Interference Tomography (OMLIT), which enables unbiased imaging of all cells in brain specimens at the mesoscale and can be seamlessly integrated into the imaging workflow of tape-based serial scanning electron microscopy on the same sample.
07:12
Determination of Self-(In)compatibility and Inter-(In)compatibility Relationships in Citrus Using Manual Pollination, Microscopy, and S-Genotype Analyses
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2023
This protocol provides a rapid method for determining pollen compatibility and incompatibility in citrus cultivars.
08:05
Culturing Human Pluripotent and Neural Stem Cells in an Enclosed Cell Culture System for Basic and Preclinical Research
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Cited by 3 •
2016
Here is a protocol to grow pluripotent stem cells (PSC) and neural stem cells (NSC) in an enclosed cell culture system that permits maximum sterility and reproducibility, replacing the traditional biosafety cabinet and incubator. This equipment meets clinical good manufacturing practice (cGMP) and clinical good lab practice (cGLP) guidelines.
08:40
Chemical Storage: Categories, Hazards And Compatibilities
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2023
Source: Robert M. Rioux & Taslima A. Zaman, Pennsylvania State University, University Park, PA While the use of various chemicals in experimental research is essential, it is also important to safely store and maintain them as a part of the Environmental, Health and Safety (EHS) program. The properties of chemicals and their reactivity vary broadly and if chemicals are not managed, stored, and labeled properly, they can have harmful or even destructive consequences such as toxic fume...
07:01
Induction and Testing of Hypoxia in Cell Culture
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Cited by 247 •
2011
Here we propose simple methods to induce hypoxia in cell cultures and simple tests to evaluate the hypoxic status of the cultures.
FAQs
Material properties affect whether cells can attach to a surface or scaffold, exchange nutrients, remove waste, and receive biochemical signals. These effects can alter viability, proliferation, and maintenance of relevant cellular functions. Consequently, compatibility assessment must consider the material together with the surrounding culture conditions rather than treating the substrate as an isolated component.
pH and osmolality are key culture conditions that influence cellular performance and environmental stability. If these conditions are not appropriately maintained, cells may show reduced viability, proliferation, or function even when the surrounding material is otherwise suitable. Monitoring them helps distinguish problems caused by the culture environment from limitations associated with a surface, scaffold, or device.
Cell adhesion establishes physical contact with a surface or scaffold, while nutrient exchange and waste removal support continued cellular activity. Biochemical signaling provides additional cues that can influence relevant functions. Compatibility therefore depends on how these processes operate together, because a construct may support attachment yet still fail to sustain the broader behavior required for a reliable engineered model.
An assessment examines how cells respond to contact with a medium, surface, scaffold, or device under defined laboratory conditions. Researchers consider viability, proliferation, and relevant cellular functions, while also looking for toxicity or contamination. These observations connect the engineered environment with biological performance and help identify whether a design supports reproducible cell behavior.
Testing provides a basis for comparing candidate biomaterials, bioreactors, and microfluidic platforms according to their effects on cultured cells. A suitable choice is one that supports the desired biological performance while avoiding harmful responses and environmental instability. This selection process helps bioengineers develop systems that behave more consistently across experiments and applications.
Compatibility testing is especially relevant when researchers build tissue-engineered constructs, disease models, or cell-based assays. In each case, the engineered environment must support cell survival and the functions needed for interpretation. Establishing compatibility before relying on experimental results improves reproducibility and helps link the performance of a material or platform to the biological outcome.