Electric Field Control of the Magnetic Order of Flexible PVDF-Nickel Ferrite Composite Nanofibers
Artikel i vetenskaplig tidskrift, 2026

Materials consisting of two ferroic orders ferroelectricity and ferromagnetism have gained huge interest in developing multifunctional devices such as magnetoelectric sensors, actuators, energy harvester, and magnetic memory. However, the lack of flexible materials with a strong magnetoelectric coupling effect makes the use of the multiferroic system difficult for flexible wearable electronic devices. Here, we fabricate a flexible polyvinylidene fluoride-nickel ferrite (PVDF-NFO)-based polymer composite nanofiber and demonstrate electric field control of magnetic order. At room temperature (300 K), the coercive field increases progressively with applied DC electric field from 6.1 Oe (0.8 kV cm(-1)) to 9.9 Oe (1.2 kV cm(-1)) and 14.6 Oe (1.4 kV cm(-1)), corresponding to an overall enhancement of similar to 139%, with sensitivity of 14.1 Oe/ kV cm(-1), compared to the 0.8 kV cm(-1) state. In addition, 96.5% modulation in the remanent magnetization has been achieved (at 300 K), further confirming the effective magnetoelectric coupling control of magnetic order in the nanofiber system. These results highlight the potential of PVDF-NFO composite nanofibers for flexible magnetoelectric devices, including sensors and memory applications.

magnetoelectric coupling

nanofibers

magnetic properties

PVDF composite

flexible devices

beta-phase PVDF

stretchable polymer electronic devices

Författare

Avinash Chaurasiya

Nanyang Technological University

Rahul Kumar Singh

Nanyang Technological University

Rohit Medwal

Indian Institute of Technology

Joseph Vimal Vas

Nanyang Technological University

Varun Chaudhary

Chalmers, Industri- och materialvetenskap, Material och tillverkning

Raju Vijayaraghavan Ramanujan

Nanyang Technological University

Rajdeep Singh Rawat

Nanyang Technological University

ACS APPLIED ELECTRONIC MATERIALS

2637-6113 (eISSN)

Vol. In Press

Ämneskategorier (SSIF 2025)

Den kondenserade materiens fysik

DOI

10.1021/acsaelm.6c00207

Mer information

Senast uppdaterat

2026-05-29