DOI: 10.22184/1993-7296.FRos.2020.14.1.88.94

This article from the journal Journal of Biophotonics was translated with the consent of the authors and in full agreement with the terms of open access under a Creative Commons Attribution-Non Commercial-No Derivs license.

Multicolor multiphoton microscopy is experimentally demonstrated for the first time on a spectral bandwidth of excitation of 300 nm (full width half maximum) thanks to the implementation a nanosecond supercontinuum (SC) source compact and simple with a low repetition rate. The interest of such a wide spectral bandwidth, never demonstrated until now, is highlighted in vivo: images of glioma tumor cells stably expressing eGFP grafted on the brain of a mouse and its blood vessels network labelled with Texas Red® are obtained. These two fluorophores have a spectral bandwidth covering the whole 300 nm available. In parallel, a similar image quality is obtained on a sample of mouse muscle in vitro when excited with this nanosecond SC source or with a classical high rate, femtosecond and quasi monochromatic laser. This opens the way for a simple and very complete biological characterization never performed to date with multiphoton processes, multiple means of contrast in nonlinear imaging allowed by the use of numerous fluorophores and other multiphoton processes like three-photon ones.

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Issue #1/2020
C. Lefort, R. P. O’Connor, V. Blanquet, L. Magnol, H. Kano, V. Tombelain, P. Leveque, V. Couderc and P. Leproux
Multicolour Multiphoton Microscopy Based on a Nanosecond Supercontinuum Laser Source
DOI: 10.22184/1993-7296.FRos.2020.14.1.88.94

This article from the journal Journal of Biophotonics was translated with the consent of the authors and in full agreement with the terms of open access under a Creative Commons Attribution-Non Commercial-No Derivs license.

Multicolor multiphoton microscopy is experimentally demonstrated for the first time on a spectral bandwidth of excitation of 300 nm (full width half maximum) thanks to the implementation a nanosecond supercontinuum (SC) source compact and simple with a low repetition rate. The interest of such a wide spectral bandwidth, never demonstrated until now, is highlighted in vivo: images of glioma tumor cells stably expressing eGFP grafted on the brain of a mouse and its blood vessels network labelled with Texas Red® are obtained. These two fluorophores have a spectral bandwidth covering the whole 300 nm available. In parallel, a similar image quality is obtained on a sample of mouse muscle in vitro when excited with this nanosecond SC source or with a classical high rate, femtosecond and quasi monochromatic laser. This opens the way for a simple and very complete biological characterization never performed to date with multiphoton processes, multiple means of contrast in nonlinear imaging allowed by the use of numerous fluorophores and other multiphoton processes like three-photon ones.
Multicolour Multiphoton Microscopy Based on a Nanosecond Supercontinuum Laser Source
 
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