1) flywheel energy storage system
飞轮储能系统
1.
Application Prospects of Flywheel Energy Storage System;
飞轮储能系统的应用前景
2.
A flywheel energy storage system is designed in this paper,and also the structure of the system is recounted concisely and the charge and discharge control strategy for high-speed flywheel is studied.
设计了一种用于UPS的飞轮储能系统,简述了其系统结构,研究了高速飞轮充放电的控制策略。
3.
This paper researches the induction motor’s working manner used in flywheel energy storage system,which is composed of four parts: the flywheel that storage energy,the synchronous generator that transforms electrical energy and rotational energy,induction motor and inverter,exciter.
本文研究了用于一种新颖的飞轮储能系统的异步电动机的工作过程,该系统主要包括飞轮转子、用于机电能量转换的同步发电机、拖动异步电动机及变频器、调节发电机电压的励磁机。
2) Superconducting flywheel energy storage system
超导飞轮储能系统
3) flywheel
[英]['flaɪwi:l] [美]['flaɪ'wil]
储能飞轮
1.
Creep characteristics and lifetime of aluminum alloy hubs in energy storage flywheels;
储能飞轮铝合金轮毂的蠕变特性及寿命
2.
Parameter identification for active magnetic bearings in energy storage flywheel;
磁悬浮储能飞轮系统中的磁轴承参数辨识
3.
Creep temperature characteristics and influence of hub design in an energy storage flywheel;
储能飞轮轮毂的蠕变温度特性与蠕变影响
4) energy storage flywheel
储能飞轮
1.
Design and testing of a permanent magnetic bearing for an energy storage flywheel;
储能飞轮永磁卸载设计及试验
2.
The rotor bearing system of an energy storage flywheel has several natural whirl modes with low frequencies.
高速运转的储能飞轮支承系统存在多个低频进动模态 ,这些模态的衰减指数对飞轮的安全运转具有决定意义。
5) flywheel energy storage
飞轮储能
1.
Energy feedback control for flywheel energy storage system;
飞轮储能能量回馈控制方法
2.
Progress of advanced power system using flywheel energy storage
先进飞轮储能电源工程应用研究进展
3.
Topologies and charging strategies of the dynamic voltage restorer with flywheel energy storage
飞轮储能动态电压恢复器的拓扑结构和充电策略
6) flywheel energy storage system (FESS)
飞轮蓄能系统
补充资料：电力系统储能
电力系统储能
energy storage for elec-tric power system
负荷时维持高效率，减少开停机次数，保持平稳运行，增长使用寿命，同时可减少电力系统的总装机容量。在实行分时电价的电力系统中，由于电力系统储能可将低谷负荷时的低价电能转换成高峰负荷时的高价电能，所以在经济上也是合理的。 20世纪末已经在应用和正在研究开发的电力系统储能技术较多，表中对几种主要的储能技术进行了概略比较。电力系统中的储能技术概括起来可由以下主要指标进行比较和判定:①输人和输出能量的形态、难易程度和密度;②响应速度，即达到一定输人或输出所需要的时间;③能量储存密度，即单位质量或单位体积储存的能量;④可能储存的时间及储存中的能量损耗;⑤能量放出后可否再生及其难易程度;⑥长期可靠性和安全性等。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条