Stable Cell Lines
Stable Cell Lines - Related Videos
12:09
Generation of Stable Transgenic C. elegans Using Microinjection
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Cited by 93 •
2008
This video demonstrates the technique of microinjection into the gonad of C. elegans to create transgenic animals.
09:51
Generation of Stable Human Cell Lines with Tetracycline-inducible (Tet-on) shRNA or cDNA Expression
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Cited by 16 •
2013
A rapid and simple way to generate human cell lines with inducible and reversible cDNA overexpression or shRNA-mediated knock-down of the gene of interest. This method enables researchers to reliably and highly reproducibly manipulate cell lines that are difficult to alter by transient transfection methods or conventional knockdown/knockout strategies.
12:59
A System to Create Stable Nanoparticle Aerosols from Nanopowders
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Cited by 4 •
2016
We designed and developed an effective nanopowder aerosolization setup and operating protocol. The system generated nanoparticle aerosols with stable number concentrations and size distributions for long durations, requiring only small quantities of test material (min. 200 mg).
01:24
The Seemingly Stable Trade‐Off
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2026
The short-run Phillips curve shows the relationship between the inflation rate and the unemployment rate.During the 1960s, economists observed that this relationship seemed to hold consistently. When unemployment was low, inflation tended to be high, and when unemployment was high, inflation tended to be low.Policymakers at the time interpreted this relationship as a necessary trade-off between unemployment and inflation. They thought they could reduce unemployment only by allowing higher...
07:41
A Method for Measuring Metabolism in Sorted Subpopulations of Complex Cell Communities Using Stable Isotope Tracing
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Cited by 3 •
2017
This article describes a method for studying cellular metabolism in complex communities of multiple cell types, using a combination of stable isotope tracing, cell sorting to isolate specific cell types, and mass spectrometry.
FAQs
The introduced genetic change is retained as the population continues through many culture passages, allowing the cells to preserve a desired genotype and express the associated product consistently. This persistence supports experiments that require repeated measurements over time, because researchers can work from the same engineered cellular system rather than relying on a newly modified population for every assay.
Selection enriches for cells that retain the introduced DNA or genome edit, while clonal expansion increases an individual modified cell into a usable population. Growing individual clones helps establish a defined cellular source for experiments. Maintaining the selected clone under controlled culture conditions supports more consistent genetic and phenotypic behavior across subsequent passages.
Researchers should consider whether the cells retain the intended genetic modification and continue expressing the desired receptor, cytokine, viral entry factor, or reporter protein. The relevant phenotype must remain sufficiently consistent during culture. These characteristics determine whether the line can provide comparable results across assays and reduce variability caused by differences between independently prepared cell populations.
A consistent genotype and phenotype provide a more uniform cellular background for testing host-pathogen interactions or measuring immune responses. Because the engineered population can be maintained across many passages, experiments are less dependent on variation introduced during repeated cell modification. This standardization improves comparison among assays and helps researchers interpret differences as experimental effects rather than changes in the cell model.
A typical workflow introduces foreign DNA or genome-editing components into cells, applies selection to identify cells that retain the intended modification, and expands individual clones. The selected population is then maintained under controlled culture conditions while its desired expression is preserved. This sequence creates a reproducible cellular resource for later laboratory assays rather than a one-time modified sample.
They are useful when researchers need a consistent source of immune receptors, cytokines, viral entry factors, or reporter proteins. Such lines can support studies of host-pathogen interactions, therapeutic screening, and measurements of cellular responses. Their defined engineered features make it easier to compare conditions across experiments and to examine how specific immune or infection-related factors influence assay results.