Featured
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Chronic in vivo imaging in the mouse spinal cord using an implanted chamber
An imaging chamber implanted over the mouse spinal cord enables long-term longitudinal two-photon microscopy of cellular dynamics in normal or pathological conditions.
- Matthew J Farrar
- , Ida M Bernstein
- & Chris B Schaffer
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Brief Communication |
Super-resolution 3D microscopy of live whole cells using structured illumination
Live-cell volumetric super-resolution imaging with 120-nm lateral and 360-nm axial resolution using structured-illumination microscopy at speeds of up to 5 s per cell volume over >50 time points captures fine cellular dynamics using only low illumination intensities.
- Lin Shao
- , Peter Kner
- & Mats G L Gustafsson
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Article |
CellCognition: time-resolved phenotype annotation in high-throughput live cell imaging
Incorporation of time information into the annotation of distinct biological states in automated fluorescence time-lapse live-cell imaging of complex cellular dynamics reduces both classification noise and confusion between cell states with similar morphology. A computational framework for achieving this is implemented in the open-source software package CellCognition.
- Michael Held
- , Michael H A Schmitz
- & Daniel W Gerlich
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Research Highlights |
Where do you come from?
Live-cell time-lapse imaging of somatic cells undergoing reprogramming raises interesting questions about the mechanism of the process.
- Natalie de Souza
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News & Views |
The electronic crystal ball: predicting cell fate from time-lapse data
Prospective isolation of defined cell types is a crucial prerequisite for their molecular analysis, but the heterogeneity of populations yielded by current protocols obscures relevant information. New studies now use additional features from time-resolved imaging data for live prospective identification of cells with defined future behavior.
- Timm Schroeder
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Article |
Computational prediction of neural progenitor cell fates
The fates of cultured neural progenitor cells can be predicted by algorithmic information theory-based computational analysis of time-lapse images of the cells.
- Andrew R Cohen
- , Francisco L A F Gomes
- & Michel Cayouette