Nonvolatile data storage using mechanical force-induced polarization switching in ferroelectric polymer

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Abstract

Ferroelectric polymers offer the promise of low-cost and flexible electronic products. They are attractive for information storage due to their spontaneous polarization which is usually switched by electric field. Here, we demonstrate that electrical signals can be readily written on ultra-thin ferroelectric polymer films by strain gradient-induced polarization switching (flexoelectric effect). A force with magnitude as small as 64nN is enough to induce highly localized (40 nm feature size) change in the polarization states. The methodology is capable of realizing nonvolatile memory devices with miniaturized cell size and storage density of tens to hundreds Gbit per square inch.

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APA

Chen, X., Tang, X., Chen, X. Z., Chen, Y. L., Guo, X., Ge, H. X., & Shen, Q. D. (2015). Nonvolatile data storage using mechanical force-induced polarization switching in ferroelectric polymer. Applied Physics Letters, 106(4). https://doi.org/10.1063/1.4906859

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