Javascript must be enabled to continue!
Multi‐Photon Microscopy
View through CrossRef
AbstractIn this series of papers on light microscopy imaging, we have covered the fundamentals of microscopy, super‐resolution microscopy, and lightsheet microscopy. This last review covers multi‐photon microscopy with a brief reference to intravital imaging and Brainbow labeling.Multi‐photon microscopy is often referred to as two‐photon microscopy. Indeed, using two‐photon microscopy is by far the most common way of imaging thick tissues; however, it is theoretically possible to use a higher number of photons, and three‐photon microscopy is possible. Therefore, this review is titled “multi‐photon microscopy.” Another term for describing multi‐photon microscopy is “non‐linear” microscopy because fluorescence intensity at the focal spot depends upon the average squared intensity rather than the squared average intensity; hence, non‐linear optics (NLO) is an alternative name for multi‐photon microscopy. It is this non‐linear relationship (or third exponential power in the case of three‐photon excitation) that determines the axial optical sectioning capability of multi‐photon imaging.In this paper, the necessity for two‐photon or multi‐photon imaging is explained, and the method of optical sectioning by multi‐photon microscopy is described. Advice is also given on what fluorescent markers to use and other practical aspects of imaging thick tissues. The technique of Brainbow imaging is discussed. The review concludes with a description of intravital imaging of the mouse. © 2023 Wiley Periodicals LLC.
Title: Multi‐Photon Microscopy
Description:
AbstractIn this series of papers on light microscopy imaging, we have covered the fundamentals of microscopy, super‐resolution microscopy, and lightsheet microscopy.
This last review covers multi‐photon microscopy with a brief reference to intravital imaging and Brainbow labeling.
Multi‐photon microscopy is often referred to as two‐photon microscopy.
Indeed, using two‐photon microscopy is by far the most common way of imaging thick tissues; however, it is theoretically possible to use a higher number of photons, and three‐photon microscopy is possible.
Therefore, this review is titled “multi‐photon microscopy.
” Another term for describing multi‐photon microscopy is “non‐linear” microscopy because fluorescence intensity at the focal spot depends upon the average squared intensity rather than the squared average intensity; hence, non‐linear optics (NLO) is an alternative name for multi‐photon microscopy.
It is this non‐linear relationship (or third exponential power in the case of three‐photon excitation) that determines the axial optical sectioning capability of multi‐photon imaging.
In this paper, the necessity for two‐photon or multi‐photon imaging is explained, and the method of optical sectioning by multi‐photon microscopy is described.
Advice is also given on what fluorescent markers to use and other practical aspects of imaging thick tissues.
The technique of Brainbow imaging is discussed.
The review concludes with a description of intravital imaging of the mouse.
© 2023 Wiley Periodicals LLC.
Related Results
Multiphoton Fluorescence Light Microscopy
Multiphoton Fluorescence Light Microscopy
Abstract
Multiphoton fluorescence microscopy is a powerful imaging technique that depends on complex quantum mechanical interacti...
Multiphoton Fluorescence Light Microscopy
Multiphoton Fluorescence Light Microscopy
Abstract
Multiphoton fluorescence microscopy is a powerful imaging technique that depends on complex quantum mechanical interacti...
The photon blockade effect of a complete Buck-Sukumar model
The photon blockade effect of a complete Buck-Sukumar model
The Buck-Sukumar (BS) model, with a nonlinear coupling between the atom and the light field, is well defined only when its coupling strength is lower than a critical coupling. Its ...
Distinct Kinetic Signatures of Photodesorption from Metal Nanoparticles
Distinct Kinetic Signatures of Photodesorption from Metal Nanoparticles
Visible photon fluxes can influence the rate and selectivity of heterogeneously catalyzed reactions on metal nanoparticle surfaces. Models describing the influence of photon fluxes...
Shadow and photon ring of black hole in asymptotically safe gravity
Shadow and photon ring of black hole in asymptotically safe gravity
In this paper, we focus on discussing the influence of thin disk accretion and asymptotically safe (AS) gravity correction parameter on the shadow and photon ring of black holes. F...
Quantum-enhanced imaging with SPAD array cameras
Quantum-enhanced imaging with SPAD array cameras
(English) Entangled photon pairs can enhance optical imaging capabilities. Phase imaging allows detecting fine detail of transparent samples without potentially invasive fluorescen...
Time Resolved Photon Fluencies for Different Input Angle Sources
Time Resolved Photon Fluencies for Different Input Angle Sources
Abstract
The variation of photon fluence distributions [photon/cm2.s] for different input angle laser sources was shown by researchers experimentally [1]. According to this...
Nonlinear multi-photon Absorption of Strong electromagnetic wave with electron-acoustic phonon scattering in infinite semi-parabolic Plus semi- inverse Squared Quantum Wells
Nonlinear multi-photon Absorption of Strong electromagnetic wave with electron-acoustic phonon scattering in infinite semi-parabolic Plus semi- inverse Squared Quantum Wells
Theoretical study on the nonlinear absorption of a strong electromagnetic waves in infinite semi-parabolic plus semi-inverse Squared Quantum Wells (ISPPSISQW) by using quantum kine...

