《应用量子材料物理》（Applied Quantum Materials Physics, AQMP） 是一本国际性、同行评议的跨学科学术期刊，致力于发表量子材料设计、物性调控与器件应用领域的前沿研究。本刊以 "从量子物态到功能器件" 为核心理念，聚焦拓扑材料、二维材料、超导材料、强关联体系等量子材料的新物态发现、物性表征与功能化应用，旨在搭建凝聚态物理、材料科学与器件工程之间的高水平交流平台，推动量子材料从基础研究向量子技术应用的转化。
收录范围包括但不限于：
- 拓扑量子材料：拓扑绝缘体、拓扑半金属、拓扑超导体的理论预测、实验发现与物性研究
- 二维材料与范德华异质结：石墨烯、过渡金属硫化物、黑磷等的电子结构、激子物理与器件集成
- 超导材料与物理：高温超导、非常规超导、拓扑超导的机理探索与应用研究
- 强关联电子系统：莫特绝缘体、重费米子材料、量子自旋液体与阻挫磁体
- 量子材料的外延生长与可控合成：分子束外延、化学气相沉积、脉冲激光沉积等
- 量子物性的先进表征：角分辨光电子能谱、扫描隧道显微镜、中子散射、低温强磁场测量
- 自旋电子学、谷电子学与拓扑电子学：基于量子材料的新型信息器件原理与实现
- 量子计算与量子传感材料：量子比特材料、单光子源、高灵敏度磁强计与探测器件
- 多铁性、铁电与磁电耦合材料：电场调控磁性、磁电耦合效应与低功耗器件
- 量子材料的器件物理：输运性质、光电响应、热电效应与界面 / 异质结工程
稿件类型： 原创研究论文（Original Research Articles）、快报（Letters）、综述论文（Review Articles）、短讯 / 简报（Short Communications）、观点与展望（Perspectives）、社论（Editorial）及书评等。
Applied Quantum Materials Physics (AQMP) is an international, peer-reviewed, interdisciplinary journal dedicated to publishing cutting-edge research on the design, property manipulation, and device applications of quantum materials. Grounded in the core vision of from quantum states to functional devices, the journal focuses on the discovery of novel quantum states, property characterization, and functionalization of topological materials, two-dimensional materials, superconductors, and strongly correlated systems. It serves as a high-level platform bridging condensed matter physics, materials science, and device engineering, advancing the translation of quantum materials from fundamental research to quantum technology applications.
The journal welcomes submissions covering, but not limited to:
- Topological quantum materials: theoretical prediction, experimental discovery, and property studies of topological insulators, topological semimetals, and topological superconductors
- Two-dimensional materials and van der Waals heterostructures: electronic structure, exciton physics, and device integration of graphene, transition metal dichalcogenides, black phosphorus, etc.
- Superconducting materials and physics: mechanistic exploration and applications of high-temperature superconductivity, unconventional superconductivity, and topological superconductivity
- Strongly correlated electron systems: Mott insulators, heavy-fermion materials, quantum spin liquids, and frustrated magnets
- Epitaxial growth and controlled synthesis of quantum materials: molecular beam epitaxy, chemical vapor deposition, pulsed laser deposition, etc.
- Advanced characterization of quantum properties: angle-resolved photoemission spectroscopy, scanning tunneling microscopy, neutron scattering, low-temperature high-field measurements
- Spintronics, valleytronics, and topological electronics: principles and realization of novel information devices based on quantum materials
- Materials for quantum computing and quantum sensing: qubit materials, single-photon sources, high-sensitivity magnetometers, and detection devices
- Multiferroic, ferroelectric, and magnetoelectric coupling materials: electric-field control of magnetism, magnetoelectric effects, and low-power devices
- Device physics of quantum materials: transport properties, optoelectronic response, thermoelectric effects, and interface/heterostructure engineering
Article types include Original Research Articles, Letters, Review Articles, Short Communications, Perspectives, Editorials, and Book Reviews.
