
教授 博士生导师 硕士生导师
性别:男
毕业院校:德国卡尔斯鲁厄工业大学
学位:博士
所在单位:材料科学与工程学院
学科:材料物理与化学
微电子学与固体电子学
办公地点:辽宁省大连市高新园区凌工路2号
大连理工大学材料科学与工程学院
知远楼A415
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发布时间:2022-06-10
论文类型:期刊论文
发表时间:2021-02-02
发表刊物:ACS APPLIED ELECTRONIC MATERIALS
卷号:2
期号:8
页面范围:2301-2317
ISSN号:2637-6113
关键字:energy storage; pyroelectric effect; solid-state cooling; hafnium oxide; ferroelectric; antiferroelectric
摘要:Ferroelectric and antiferroelectric materials are promising options for energyrelated (such as energy harvesting, energy storage, IR detection, and refrigeration) and memory applications (such as ferroelectric random-access memory (FeRAM) and ferroelectric field-effect transistor (FeFET)). In the past, several classes of materials (such as polymers, ceramics, single crystals, and glasses) have been studied for these properties. However, because of a large deposition thickness (in micrometers or larger), these materials are inappropriate for future nanoscale devices. Recently, the ferroelectric and antiferroelectric HfO2-based thin films have also been studied for the energy-related and memory applications. HfO2-based materials have many advantages over the conventional materials, such as compatibility with Si-based semiconductor technology, ultrasmall thicknesses (nm), and simple compositions, and they are appropriate for integration within 3-D nanostructures. HfO2-based materials can be promising for energy-related applications, such as energy storage, pyroelectric energy harvesting, IR sensors, and solid-state cooling. This article provides some basic knowledge of these energy-related properties. Moreover, this article reviews the energy-related properties of HfO2-based thin films, their origins, and the prospects of this research field.