&lt;title&gt;Organic photorefractive systems based on triphenyldiamine derivatives&lt;/title&gt;

Uwe Hofmann; S. Schloter; Andreas Schreiber; K. Hoechstetter; G. Bäuml; Stephan J. Zilker; D. Haarer; Mukundan Mukundan Thelakkat; Hans‐Werner Schmidt; Kai K. Ewert; Claus D. Eisenbach

doi:10.1117/12.328174

Abstract

1 min read

Photorefractive guest-host systems based on photoconducting polymers such as poly(N-vinylcabazol) or polysiloxane generally exhibit large diffraction efficiencies and photorefractive gain coefficients. Their response times however, are limited by the orientation of the nonlinear optical chromophores and by the photoconducting properties of the polymer. Rise times down to 50 ms have been observed until now.

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<title>Organic photorefractive systems based on triphenyldiamine derivatives</title>

Abstract

Discussion(0)

Related publications

<title>Variation of the glass transition temperature in organic photorefractive materials: plasticizer versus novel synthetic approaches</title>

<title>Build-up dynamics of fast organic photorefractive glasses</title>

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Foreword to the special issue on new developments in structural stability

High Broad‐Band Photoresponsivity of Mechanically Formed InSe–Graphene van der Waals Heterostructures

&lt;title&gt;Organic photorefractive systems based on triphenyldiamine derivatives&lt;/title&gt;

Abstract

Discussion(0)

Related publications

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Poly[bis(triphenylamine) ether]s with low glass transition temperatures as photoconductors in fast photorefractive systems

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<title>Organic photorefractive systems based on triphenyldiamine derivatives</title>

<title>Variation of the glass transition temperature in organic photorefractive materials: plasticizer versus novel synthetic approaches</title>

<title>Build-up dynamics of fast organic photorefractive glasses</title>