journal article·2026-04-01Open access

Synthesis of functional chalcogenide materials for memory/sensing devices and their integration into artificial sensory systems

Pengfei Liu, Jae Won Heo, Hyeonmin Bong, Jinsik Choe, Huiyoung Lee, Won-Kyu Lee, Myung-Gil Kim, Donghee Son, Joohoon Kang, Taeyong Eom, Sungjin Park, In Soo Kim

Abstract

Abstract With distinctive phase-change and switching properties, chalcogenide materials have emerged as critical components in various cutting-edge technologies. This review attempts to provide an overview of chalcogenide materials, from their fundamental properties to their diverse applications with focus on memory and sensing technologies, which are indispensable components in human-like electronic artificial sensory systems. After reviewing the synthesis and application of chalcogenide materials with respect to dimensionality, we focus on the key advances in (1) memory devices, including phase-change memory (PCM), ovonic threshold switching (OTS) selectors, and selector-only memory (SOM), and (2) sensing devices, including optical sensors, gas sensors, and neuromorphic sensors. Emphasis will be given on how chalcogenide materials can be integrated into next-generation systems, such as wearable platforms, artificial intelligence, and neuromorphic/quantum computing systems, to meet the growing demands for high-performance memory and multi-functional sensing. We also provide an overview of emerging research trends as well as a comprehensive perspective on the current status of research on chalcogenides. Finally, we attempt to provide insights into how chalcogenides can continue to drive technological breakthroughs in both memory and sensing applications while shaping the future landscape of intelligent systems, smart sensing platforms, and sustainable technology development.
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Research context

OpenAlex topics: Phase-change materials and chalcogenides · Transition Metal Oxide Nanomaterials · 2D Materials and Applications

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