Correction to “2D ReS<sub>2</sub>/3D Bi<sub>2</sub>O<sub>2</sub>Se Homo‐Heterojunction Photodetector Toward Near‐Infrared Polarization Sensitive Detection and High Sensitivity Communication”

We regret that, recently, one error was found in the article. In the initially published version of the article, the text annotations in Figure 4C and its corresponding mentions in the main text use incorrect descriptions. The revised version of the corresponding description is presented below. In light of this, we propose the capacity of a polarization-sensitive photodetector to facilitate secure communication through the encoding of information within polarization states (see Figure 4C). The digital message “1 011 001” is divided into individual bits. Each bit is subsequently associated with a specific polarization state, utilizing the pre-established encryption key (Bit 0: Horizontal linear polarization (0°); Bit 1: Vertical linear polarization (90°)). The Polarization Modulator is responsible for dynamically altering the laser's polarization state in accordance with the encryption key. The polarization-sensitive photodetector subsequently measures the polarization state of the incoming light. For each bit, it determines whether the light is horizontally linear polarized (0°) or vertically linear polarized (90°). The corrections do not affect any of the conclusions of this article. We apologize for any inconvenience caused. We would like to correct the errors and provide the corrected image below. We apologize for the careless errors. The corrected Figure 4C and updated Figure 4 is shown as follows. Figure 4. Conceptualization of ReS2/Bi2O2Se for polarization imaging and telecommunications applications. A) Assessment of the device's measurement stability. B) Overview of the polarization imaging concept. C) Proposed polarization-based encrypted communication system. D) Schematic representation of the telecommunication system. E) Design of the signal and F) Experimental signal output result.

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Publication Details

Journal
Laser & Photonics Review
Published
2025-05-23
DOI
https://doi.org/10.1002/lpor.202501062
Citations
1
Primary Topic
Gas Sensing Nanomaterials and Sensors
Type
article
Field-Weighted Citation Impact
0.73
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article

Correction to “2D ReS2/3D Bi2O2Se Homo‐Heterojunction Photodetector Toward Near‐Infrared Polarization Sensitive Detection and High Sensitivity Communication”

Ziyi Fu, Yuchao Wei, Hang Yu, Jiangchao Han et al.
1 citations
Laser & Photonics Review
Gas Sensing Nanomaterials and Sensors
0.73
article

Correction to “2D ReS2/3D Bi2O2Se Homo‐Heterojunction Photodetector Toward Near‐Infrared Polarization Sensitive Detection and High Sensitivity Communication”

Ziyi Fu, Yuchao Wei, Hang Yu, Jiangchao Han, Zexu Wang, Jun Gou, Jun Wang, He Yu, Yadong Jiang, Laijiang Wei, Zhiming Wu, Xiutao Yang
article en
1 citations

Abstract

We regret that, recently, one error was found in the article. In the initially published version of the article, the text annotations in Figure 4C and its corresponding mentions in the main text use incorrect descriptions. The revised version of the corresponding description is presented below. In light of this, we propose the capacity of a polarization-sensitive photodetector to facilitate secure communication through the encoding of information within polarization states (see Figure 4C). The digital message “1 011 001” is divided into individual bits. Each bit is subsequently associated with a specific polarization state, utilizing the pre-established encryption key (Bit 0: Horizontal linear polarization (0°); Bit 1: Vertical linear polarization (90°)). The Polarization Modulator is responsible for dynamically altering the laser's polarization state in accordance with the encryption key. The polarization-sensitive photodetector subsequently measures the polarization state of the incoming light. For each bit, it determines whether the light is horizontally linear polarized (0°) or vertically linear polarized (90°). The corrections do not affect any of the conclusions of this article. We apologize for any inconvenience caused. We would like to correct the errors and provide the corrected image below. We apologize for the careless errors. The corrected Figure 4C and updated Figure 4 is shown as follows. Figure 4. Conceptualization of ReS2/Bi2O2Se for polarization imaging and telecommunications applications. A) Assessment of the device's measurement stability. B) Overview of the polarization imaging concept. C) Proposed polarization-based encrypted communication system. D) Schematic representation of the telecommunication system. E) Design of the signal and F) Experimental signal output result.

Laser & Photonics ReviewVol. 19(17)
University of Electronic Science and Technology of China (CN), Henan Tianguan Group (China) (CN), National Engineering Research Center of Electromagnetic Radiation Control Materials (CN), Luoyang Institute of Science and Technology (CN)
Openalex Percentile: Top 28%
Gas Sensing Nanomaterials and Sensors
0.73
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