Electro-optical modulation memristor device with double-layer cavity coupling structure and preparation method and application thereof
By using an electro-optic modulated memristor with a dual-cavity coupling structure, combined with the oxidation-reduction and migration of the active metal layer driven by an electric field, the problem that traditional memristors cannot also function as optical modulators is solved. This achieves high-contrast, high-speed response optical modulation and integrated storage and display, reduces system power consumption and latency, and supports high-density integration and miniaturization.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- SUZHOU INST OF NANO TECH & NANO BIONICS CHINESE ACEDEMY OF SCI
- Filing Date
- 2026-02-11
- Publication Date
- 2026-05-29
AI Technical Summary
Traditional memristors are only used as electronic storage elements and cannot be used as optical modulators or display devices. Single-layer FP cavities are not sensitive to small changes in the thickness of the metal layer, resulting in poor optical modulation effects. Traditional electrochromic response speed is slow and the device structure has poor stability. The separate integration of storage and display panels leads to high power consumption and difficulties in miniaturization.
An electro-optic modulated memristor device employing a dual-cavity coupling structure achieves non-volatile resistive state switching and optical modulation by driving the oxidation-reduction and migration of the active metal layer with an electric field. The optical coupling effect of the dual-cavity structure amplifies the optical response caused by the change in metal layer thickness. Combined with the all-solid-state oxide and the electric field-driven high-speed ion migration mechanism, high-speed response and high-contrast optical modulation are achieved.
It achieves the integration of electrical storage and optical display in a single device, improves optical modulation sensitivity and contrast, has a response speed of nanosecond to microsecond and excellent stability, reduces system power consumption and latency, and supports high-density integration and miniaturization design.
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Figure CN122121547A_ABST