Advanced encryption method realized by secret shared phase encoding scheme using a multi-wavelength metasurface

Multi-channel information encryption technology has been implemented by optical metasurfaces owing to their superior ability to control the phase, amplitude, wavelength and polarization of incident light. However, current metasurface-based multi-channel encryption technologies suffer from informatio...

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Veröffentlicht in:Nanophotonics (Berlin, Germany) Germany), 2020-09, Vol.9 (11), p.3687-3696
Hauptverfasser: Li, Zhenfei, Premaratne, Malin, Zhu, Weiren
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Zhu, Weiren
description Multi-channel information encryption technology has been implemented by optical metasurfaces owing to their superior ability to control the phase, amplitude, wavelength and polarization of incident light. However, current metasurface-based multi-channel encryption technologies suffer from information leakage in non-full channel decoding processes. To better increase the security of the encrypted information, we develop a secret shared phase encoding scheme by combining a visual secret sharing scheme with a metasurface-based phase-encoding technique. Our method achieves its high-concealment through mapping the target image into a set of unrecognizable phase-only keys that are subsequently encoded by a multi-wavelength metasurface. In the decryption process, the secret information can be reconstructed only by decoding and stacking all the wavelength channels of the metasurface. At the same time, chaotic images can be extracted from the other channels without revealing any original information. The simulated results and the theoretical analysis show the strong robustness and high security of our encryption setup, which is sure to find applications in emerging optical encryption schemes.
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subjects Channels
Data encryption
Encryption
Incident light
information encryption
Mapping
metasurface
Metasurfaces
multi-wavelength
phase encoding
secret sharing
Stability
Target recognition
title Advanced encryption method realized by secret shared phase encoding scheme using a multi-wavelength metasurface
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