The analysis of the motion of subcellular particles in live cell microscopy images is essential for understanding biological processes within cells. For accurate quantification of the particle motion, compensation of the motion and deformation of the cell nucleus is required. We introduce a non-rigid multi-frame registration approach for live cell fluorescence microscopy image data. Compared to existing approaches using pairwise registration, our approach exploits information from multiple consecutive images simultaneously to improve the registration accuracy. We present three intensity-based variants of the multi-frame registration approach and we investigate two different temporal weighting schemes. The approach has been successfully appl...
Time-lapse fluorescent microscopy (TLFM) combined with predictive mathematical modelling is a powerf...
Cell segmentation and tracking in time-lapse fluorescence microscopy images is a task of fundamental...
Live cell imaging provides a powerful technique for the analysis of molecular dynamics within cells....
The observed motion of subcellular particles in fluorescence microscopy image sequences of live cell...
To gain a better understanding of cellular and molecular processes it is important to quantitatively...
International audienceThe analysis of the pure motion of subnuclear structures without influence of ...
International audienceAutomatically stabilizing moving living cells in fluorescence microscopy image...
We present an application of nonlinear image registration to align in microscopy time lapse sequence...
Increasingly the behavior of living systems is being evaluated using intravital microscopy since it ...
Motion analysis plays an important role in studing activities or behaviors of live objects in medici...
Advances in microscopy imaging technologies have enabled the visualization of live-cell dynamic proc...
© 2015 IEEE.Studying the behaviour of cells using time-lapse microscopic imaging requires automated ...
Abstract—We propose a registration system to be used for tracking cells in intravital video microsco...
Time-lapse fluorescent microscopy (TLFM) combined with predictive mathematical modelling is a powerf...
Cell segmentation and tracking in time-lapse fluorescence microscopy images is a task of fundamental...
Live cell imaging provides a powerful technique for the analysis of molecular dynamics within cells....
The observed motion of subcellular particles in fluorescence microscopy image sequences of live cell...
To gain a better understanding of cellular and molecular processes it is important to quantitatively...
International audienceThe analysis of the pure motion of subnuclear structures without influence of ...
International audienceAutomatically stabilizing moving living cells in fluorescence microscopy image...
We present an application of nonlinear image registration to align in microscopy time lapse sequence...
Increasingly the behavior of living systems is being evaluated using intravital microscopy since it ...
Motion analysis plays an important role in studing activities or behaviors of live objects in medici...
Advances in microscopy imaging technologies have enabled the visualization of live-cell dynamic proc...
© 2015 IEEE.Studying the behaviour of cells using time-lapse microscopic imaging requires automated ...
Abstract—We propose a registration system to be used for tracking cells in intravital video microsco...
Time-lapse fluorescent microscopy (TLFM) combined with predictive mathematical modelling is a powerf...
Cell segmentation and tracking in time-lapse fluorescence microscopy images is a task of fundamental...
Live cell imaging provides a powerful technique for the analysis of molecular dynamics within cells....