· Magnetic levitation (磁悬浮)
· Maglev bearing (磁浮轴承)
· Flywheel energy storage system (飞轮储能系统)
· Green transportation (绿色交通)
· Linear motor (直线电机)
· Electromechanical coupling (机电耦合)
· Intelligent monitoring (智能监测)
· Fault prediction (故障预测)

· Multiphysics coupling modeling and performance analysis of maglev transportation (磁悬浮交通的多物理场耦合建模与性能分析)
· Intelligent perception and state recognition of suspension, guidance, and drive systems (悬架、导向和驱动系统的智能感知和状态识别)
· Status monitoring and fault diagnosis of maglev transportation and energy equipment (磁浮交通和能源设备的状态监测和故障诊断)
· Electromechanical parameter design and optimization of maglev bearing (磁悬浮轴承的机电参数设计与优化)
· Electromagnetic characteristics and control strategies of maglev flywheel energy storage system (磁悬浮飞轮储能系统的电磁特性及控制策略)
· Application of maglev flywheel energy storage for braking energy recovery and power management in green transportation (磁悬浮飞轮储能在绿色交通制动能量回收和功率管理中的应用)
· Multi-physics coupling dynamics and stability improvement of maglev equipment (磁悬浮设备的多物理耦合动力学和稳定性改进)
· Superconducting maglev technology and key technologies for low-temperature electromagnetic equipment (超导磁悬浮技术及低温电磁设备关键技术)

Maglev technologies are becoming increasingly important in green transportation and energy fields for their contactless operation, high efficiency, and low maintenance. Advanced maglev systems, such as high-temperature superconducting (HTS) maglev, magnetic bearings, flywheel energy storage systems, and linear motor technologies, are expanding their applications in high-speed transportation, renewable energy, industrial equipment, and advanced manufacturing. To further improve the performance and reliability of these systems, researchers are faced with new challenges, such as: electromechanical coupling effects becoming increasingly significant under complex operating conditions; dynamic behavior and stability requiring accurate analysis and control; condition monitoring and fault diagnosis remaining difficult in harsh environments (including high-speed, cryogenic, and vacuum conditions); and intelligent maintenance demanding more reliable sensing and decision-making technologies.

磁浮技术因其非接触式运行、高效率和低维护特点，在绿色交通和能源领域变得越来越重要。先进的磁悬浮系统，如高温超导磁悬浮、磁轴承、飞轮储能系统和直线电机技术，正在扩大其在高速交通、可再生能源、工业设备和先进制造业中的应用。为了进一步提高这些系统的性能和可靠性，研究人员面临着新的挑战，例如：在复杂的运行条件下，机电耦合效应变得越来越显著；需要精确分析和控制的动态行为和稳定性；在恶劣环境（包括高速、低温和真空条件）下，状态监测和故障诊断仍然很困难；智能维护需要更可靠的传感和决策技术。