Synergistic Optimization of Europium‐Doped Yttria for Photoluminescence and Triboelectric Nanogenerator Applications

Author:

Zawar Daksha1,Mishra Siju2ORCID,Rakshita Muddamalla2ORCID,Pradhan Payal P.2ORCID,Durga Prasad Kasireddi A. K.2ORCID,Potu Supraja2ORCID,Madathil Navaneeth2ORCID,Pani Jitesh2,Kishore Babu Nagumothu1ORCID,Borkar Hitesh2ORCID,Rajaboina Rakesh Kumar2ORCID,Haranath Divi2ORCID

Affiliation:

1. Department of Metallurgical and Materials Engineering National Institute of Technology Warangal Hanumakonda Telangana 506004 India

2. Energy Materials and Devices (EMD) Laboratory Department of Physics National Institute of Technology Warangal Hanumakonda Telangana 506004 India

Abstract

In recent years, multifunctional applications of the same material have gained wide recognition in various fields. The present study reports the synthesis, characterization, and multifunctional applications of europium (Eu)‐doped yttrium oxide (Y2O3) nanophosphor. Synergistic optimization of Eu‐doped Y2O3 results in enhanced photoluminescence (PL) and triboelectric nanogenerator (TENG) performance. Eu‐doped Y2O3 nanophosphors are synthesized using an autocombustion method, and comprehensive characterizations are conducted. The investigations indicate that the Eu doping significantly influences the PL intensity, with the highest emission observed at 3 mol% for powders. The synthesized nanophosphors are blended with silicone to fabricate hybrid films, which are utilized for energy harvesting applications using TENG technology. The TENG devices fabricated with these hybrid films demonstrate a notable relationship between the Eu concentration and the electrical output, achieving peak performance at 1 mol% Eu doping. The maximum output voltage of ≈535 V, short‐circuit current of ≈38 μA, and power density of 800 mW m−2 are observed. Further, TENG is demonstrated in a self‐powered UV photodetector application. The present results contribute to the improvement of sustainable energy technologies and open up a new window for multifunctional materials.

Funder

CSIR-Central Scientific Instruments Organisation

Mission on Nano Science and Technology

Publisher

Wiley

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