Multicolor Fluorescence Photoswitching: Color‐Correlated versus Color‐Specific Switching

Fluorescence photoswitching systems using photochromic molecules, which turn on and off their fluorescence upon light irradiation, have emerged as highly promising material systems during the past two decades related to their optoelectronic applications such as high‐density optical memory, bioimagin...

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Veröffentlicht in:Advanced optical materials 2018-10, Vol.6 (20), p.n/a
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description Fluorescence photoswitching systems using photochromic molecules, which turn on and off their fluorescence upon light irradiation, have emerged as highly promising material systems during the past two decades related to their optoelectronic applications such as high‐density optical memory, bioimaging, and super‐resolution microscopy. Single‐color fluorescence photoswitching, which provides only two different states (on/off), is limited in terms of its practical applications such as interference from autofluorescence in biological applications and limited switching states in logic gate and optical memory applications. To address such issues, studies on multicolor fluorescence photoswitching systems incorporating photochromic molecules have witnessed an explosive growth in the past decade in terms of the academic principles and technological applications. In the earlier part, this review briefly introduces the principle of fluorescence photoswitching based on the representative single‐color fluorescence photoswitching systems. Then, the review turns into the main topic of multicolor fluorescence photoswitching systems which are organized in two different subcategories of 1) color‐correlated photoswitching and 2) color‐specific photoswitching. Not only the material systems and principles of the multicolor fluorescence photoswitching, but also their important applications are described and discussed here. In the last section of this review, a brief summary and outlook on the future development are provided. Multicolor fluorescence photoswitching, color‐correlated and color‐specific switching, is reviewed. The multicolor photoswitching is the only one solution to some limitations of single‐color photoswitching in application fields such as optical memory and super‐resolution bioimaging. The fundamentals and design, material systems, as well as applications of the multicolor photoswitching are covered. A perspective on the future is also provided.
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Single‐color fluorescence photoswitching, which provides only two different states (on/off), is limited in terms of its practical applications such as interference from autofluorescence in biological applications and limited switching states in logic gate and optical memory applications. To address such issues, studies on multicolor fluorescence photoswitching systems incorporating photochromic molecules have witnessed an explosive growth in the past decade in terms of the academic principles and technological applications. In the earlier part, this review briefly introduces the principle of fluorescence photoswitching based on the representative single‐color fluorescence photoswitching systems. Then, the review turns into the main topic of multicolor fluorescence photoswitching systems which are organized in two different subcategories of 1) color‐correlated photoswitching and 2) color‐specific photoswitching. Not only the material systems and principles of the multicolor fluorescence photoswitching, but also their important applications are described and discussed here. In the last section of this review, a brief summary and outlook on the future development are provided. Multicolor fluorescence photoswitching, color‐correlated and color‐specific switching, is reviewed. The multicolor photoswitching is the only one solution to some limitations of single‐color photoswitching in application fields such as optical memory and super‐resolution bioimaging. The fundamentals and design, material systems, as well as applications of the multicolor photoswitching are covered. 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subjects energy transfer
Fluorescence
Light irradiation
Logic circuits
Materials science
Medical imaging
multicolor
Optical memory (data storage)
Optics
Optoelectronics
photochromism
photoswitching
Switching
title Multicolor Fluorescence Photoswitching: Color‐Correlated versus Color‐Specific Switching
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