What does this research mean for the field?

Angle strain engineering enhances the polarization and ferroelectric performance of ammonium cyclic-phosphate, enabling its effective application as a wind speed sensor. Novelty: ClaimNovelty.NOVEL_FINDING. Consensus alignment: ConsensusAlignment.NEUTRAL.

What question did this study set out to answer?

This research aims to improve the ferroelectric properties of ammonium cyclic-phosphate through angular strain engineering.

June 3, 2026Journal of Materials Chemistry A0 citations

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Angular Strain-Induced Polarization in a Ferroelectric Ammonium Cyclic-Phosphate and its Wind Speed Sensing Application

VKVikash Kushwaha DSDarshan Yuvraj Sawant AKAntonysylvester Kirana

Key Points

This research aims to improve the ferroelectric properties of ammonium cyclic-phosphate through angular strain engineering.
Explored the effects of angular strain on the polarization of amino-phosphate-based ferroelectrics.
Evaluated ionic conductivity and dielectric constants under different conditions.
Demonstrated significant improvement in ferroelectric performance with enhanced polarization responses.
Showed promising potential for practical applications in wind speed sensing technology.

Abstract

Amino-phosphate-based ferroelectrics exhibit strong ionic conductivity, biocompatibility, high dielectric constants, and pronounced ferroelectric properties. Considering these attributes, we propose a strategy to enhance ferroelectric performance through angle strain engineering in...

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Angular Strain-Induced Polarization in a Ferroelectric Ammonium Cyclic-Phosphate and its Wind Speed Sensing Application

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Abstract

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