Self‐Powered and Highly Efficient Ion‐Diffused MAPbBr3 Perovskite Single Crystal‐Based UV–Vis Photodiode

Author:

Perveen Abida1ORCID,Xu Yubing1,Abubakar Syed Muhammad2,Sellan Premkumar1,Xin Wang1,Saeed Fawad1,Hussain Sajid1,Bae Byung Seong3,Zhou Jianming4,Zhu Ying5,Lei Wei1

Affiliation:

1. Joint International Laboratory of Information Display and Visualization School of Electronic Science and Engineering Southeast University Nanjing 210096 China

2. Beijing National Research Center for Information Science and Technology School of Integrated Circuits Tsinghua University Beijing 100084 China

3. Department of Electronics & Display Engineering Hoseo University Hoseo Ro 79 Asan City Chungnam 31499 Republic of Korea

4. E‐Xray Electronic Co. Ltd. Suzhou 215131 China

5. E‐Spectrum Optoelectronic Co. Ltd. Suzhou 215111 China

Abstract

AbstractThe perovskite single crystals (PSC) produced by solution‐processed metallic ions doping have a thick p–n junction (greater than 10 µm). Meanwhile, to achieve high responsivity, the carrier drift length (µτE) has to be larger than the dimensions of the detector. If the p–n junction is quite thick, a high bias voltage is required. For the practical application of photodiode, it is imperative to find a means to generate a thin p–n junction. A productive technique is suggested for forming a thin p–n junction by diffusing metallic ions, resulting in a longer drift length of the carrier than the depletion width. Thinner p–n junction leads to reduced dark current density (0.5 µA cm−2), low trap density (5.71 × 108 cm−3), high mobility (417 cm2 V−1 s−1), and hence increased responsivity (77.69 A W−1) for 30 µW cm−2 UV illumination under a low applied voltage of −15 V. A quick response time with a rise/fall duration of 22 ms/30 ms under 0 V and long‐term stability for over 3 months in ambient airis achieved. To comprehend the performance with the thinner p–n junction‐based photodiodes, the results under UV–Vis illumination are examined and compared. The outcomes hint at a method that holds promise for producing efficient photodiodes.

Funder

National Key Research and Development Program of China

Publisher

Wiley

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