Dynamic Culture
Dynamic Culture - Related Videos
02:30
In Vitro Culturing Technique for Studying Cellular Dynamics in Zebrafish Scales
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2025
This protocol offers a method to study cellular dynamics using a simple in vitro culture technique. It provides an opportunity for zebrafish researchers and educators to study cellular processes, such as those related to bone homeostasis and basic cell biology, by visualizing fluorescent nuclei and apoptotic cells within the scales.
15:21
Microfabricated Platforms for Mechanically Dynamic Cell Culture
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Cited by 3 •
2010
In this protocol, we demonstrate the fabrication of a microactuator array of vertically displaced posts on which the technology is based, and how this base technology can be modified to conduct high-throughput mechanically dynamic cell culture in both two-dimensional and three-dimensional culture paradigms.
16:06
Fabrication of Micropatterned Hydrogels for Neural Culture Systems using Dynamic Mask Projection Photolithography
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Cited by 46 •
2011
Simple techniques are described for the rapid production of microfabricated neural culture systems using a digital micromirror device for dynamic mask projection lithography on regular cell culture substrates. These culture systems may be more representative of natural biological architecture, and the techniques described could be adapted for numerous applications.
10:30
Use of pHluorin to Assess the Dynamics of Axon Guidance Receptors in Cell Culture and in the Chick Embryo
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Cited by 10 •
2014
We describe here the use of a pH-sensitive green fluorescent protein variant, pHluorin, to study the spatio-temporal dynamics of axon guidance receptors trafficking at the cell surface. The pHluorin-tagged receptor is expressed both in cell culture and in vivo, using electroporation of the chick embryo.
06:37
Quantifying Cytoskeleton Dynamics Using Differential Dynamic Microscopy
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Cited by 13 •
2022
Differential dynamic microscopy (DDM) combines features of dynamic light scattering and microscopy. Here, the process of using DDM to characterize reconstituted cytoskeleton networks by quantifying the subdiffusive and caged dynamics of particles in vimentin networks and the ballistic motion of active myosin-driven actin-microtubule composites is presented.
FAQs
Fluid flow generates mechanical cues, including shear stress, that can influence how cells behave within an engineered culture environment. The magnitude and pattern of these forces depend on fluid movement and mixing in the bioreactor. Reproducing such cues helps engineers create conditions that more closely represent changing environments in living systems and can support tissue maturation.
Mixing and perfusion help distribute nutrients and oxygen through the culture, while mass transfer describes their movement into the cells, tissues, or microorganisms being grown. Engineering these processes can reduce uneven exposure to essential resources and help maintain controlled dissolved-gas conditions. Better control of these variables may improve culture uniformity and cellular viability.
Static culture provides a comparatively unchanging environment, whereas Dynamic Culture allows physical and chemical conditions to change through controlled flow, mixing, perfusion, and regulated delivery. This difference adds mechanical stimulation and improves control over nutrient and oxygen transport. As a result, dynamic systems can model changing biological environments more effectively and support tissue maturation studies.
A bioreactor-based setup combines controlled fluid movement with regulation of temperature, pH, and dissolved gases. Engineers also establish appropriate mixing, perfusion, and delivery of nutrients or oxygen so that the cultured material receives a managed environment. Coordinating these variables is essential because both chemical conditions and mechanical cues influence cellular behavior and culture performance.
Researchers may choose this approach when they need to influence tissue maturation, improve culture uniformity, or maintain cell viability under conditions that include mechanical stimulation and controlled transport. In tissue engineering and regenerative medicine, the system provides a way to expose developing tissues to engineered flow and regulated nutrients or oxygen, supporting the study of more physiologically relevant growth environments.
Dynamic Culture can help investigators examine how cells, tissues, or microorganisms respond to changing physical and chemical conditions. In engineering research, it supports bioprocess development, tissue maturation studies, and biomaterials testing while providing experimental models of changing environments found in living systems. Outcomes may include information about viability, uniformity, cellular behavior, and the effects of shear stress.