0000000000218849

AUTHOR

Martí Duocastella

0000-0003-4687-8233

showing 3 related works from this author

Fast Inertia-Free Volumetric Light-Sheet Microscope

2017

Fast noninvasive three-dimensional (3D) imag-ing is crucial for quantitatively studying highly dynamic events ranging from flow cytometry to developmental biology. Light-sheet microscopy has emerged as the tool-of-choice for 3D characterization of rapidly evolving systems. However, to obtain a 3D image, either the sample or parts of the microscope are moved, limiting the acquisition speed. Here, we propose a novel inertia-free light-sheet-based scheme for volumetric imaging at high temporal resolution. Our approach comprises a novel combination of an acousto-optic scanner to produce tailored illumination and an acoustic-optofluidic lens, placed in the detection path to provide extended dept…

0301 basic medicineScanneracouto-optic devicesMaterials scienceMicroscopethree-dimensional microscopy01 natural sciencesAcouto-optic devices flow cytometry light-sheet microscopy three-dimensional microscopy Electronic Optical and Magnetic Materials Biotechnology Atomic and Molecular Physics and Optics Electrical and Electronic Engineeringlaw.invention010309 optics03 medical and health sciencesOpticslawAtomic and Molecular Physics0103 physical sciencesMicroscopyElectronicOptical and Magnetic MaterialsElectrical and Electronic Engineeringbusiness.industryflow cytometryRangingFrame rateAtomic and Molecular Physics and OpticsElectronic Optical and Magnetic MaterialsCharacterization (materials science)Lens (optics)acouto-optic devices; flow cytometry; light-sheet microscopy; three-dimensional microscopy; Electronic Optical and Magnetic Materials; Biotechnology; Atomic and Molecular Physics and Optics; Electrical and Electronic Engineering030104 developmental biologyLight sheet fluorescence microscopyand Opticsbusinesslight-sheet microscopyBiotechnologyACS Photonics
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Three-dimensional multiple-particle tracking with nanometric precision over tunable axial ranges

2017

The precise localization of nanometric objects in three dimensions is essential to identify functional diffusion mechanisms in complex systems at the cellular or molecular level. However, most optical methods can achieve high temporal resolution and high localization precision only in two dimensions or over a limited axial (z) range. Here we develop a novel wide-field detection system based on an electrically tunable lens that can track multiple individual nanoscale emitters in three dimensions over a tunable axial range with nanometric localization precision. The optical principle of the technique is based on the simultaneous acquisition of two images with an extended depth of field while …

0301 basic medicineOptical devicesMaterials scienceComplex system02 engineering and technologyTracking (particle physics)Deformable mirrorlaw.invention03 medical and health sciencesOpticsPosition (vector)lawAtomic and Molecular PhysicsElectronicImaging systemsDepth of fieldOptical and Magnetic MaterialsFluorescence microscopy; Imaging systems; Microscopy; Optical devices; Three-dimensional image processing; Electronic; Optical and Magnetic Materials; Atomic and Molecular Physics; and OpticsFluorescence microscopyMicroscopybusiness.industryThree-dimensional image processingFluorescence microscopy; Imaging systems; Microscopy; Optical devices; Three-dimensional image processing; Electronic Optical and Magnetic Materials; Atomic and Molecular Physics and Optics021001 nanoscience & nanotechnologyAtomic and Molecular Physics and OpticsElectronic Optical and Magnetic MaterialsNumerical apertureLens (optics)030104 developmental biologyTemporal resolutionand Optics0210 nano-technologybusinessFluorescence microscopy Imaging systems Microscopy Optical devices Three-dimensional image processing Electronic Optical and Magnetic Materials Atomic and Molecular Physics and Optics
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A Novel Fast Volumetric Light Sheet Microscopy

2016

Fast noninvasive three-dimensional (3D) imaging is crucial for the quantitative understanding of highly dynamic biological processes. Over the last decades, several fluorescence microscopy techniques have been developed in order to provide a faster and deeper imaging of thick biological samples [1]. Within this framework, Light Sheet Fluorescence Microscopy (LSFM) has emerged as a powerful imaging tool for 3D imaging of thick samples ranging from single cells to entire animals [2,3].However, to obtain a 3D reconstruction either sample or microscope parts usually need to be moved limiting the acquisition speed and inducing possible interferences in volume recording. To solve this problem, he…

light sheet microscopyMicroscopeMaterials scienceImage qualitybusiness.industry3D reconstructionBiophysicsFrame ratelaw.inventionOpticslawLight sheet fluorescence microscopyTemporal resolutionMicroscopyDeconvolutionbusinessBiophysical Journal
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