1) super conductive device
超导装置
1.
Experimental situation of vacuum brazing for TU1-SUS304L in super conductive device was introduced.
介绍了TU1-SUS30 4L奥氏体不锈钢真空钎焊接头的试验情况 ,特别阐明了接头在超导装置中应用的可靠
3) SMES
超导磁储能装置
1.
RESEARCH ON THE CAPACITY OF SMES AIMED AT THE STABILITY OF POWER SYSTEM;
针对系统暂态稳定性的超导磁储能装置容量研究
2.
A GENETIC APPROACH TO MIXED ROBUST CONTROL DESIGN FOR SMES;
基于遗传算法的超导磁储能装置H_2/H_∞鲁棒控制器设计
3.
As nonlinear PID(Proportional Integration Differential) controller is free of the math model of the controlled system in design procedure,a nonlinear PID controller for SMES(Superconducting Magnetic Energy Storage) unit connected to power system is proposed.
基于非线性比例积分微分PID(Proportional Integration Differential)控制器在设计上具有不依赖于被控系统数学模型的特点,设计了用于电力系统的超导磁储能装置SMES(Superconducting Mag-netic Energy Storage)的非线性PID控制器。
4) Superconducting magnetic energy storage (SMES)
超导储能装置(SMES)
5) experiment advanced superconducting Tokamak
超导Tokamak实验装置
6) SMES
超导储能装置
1.
Research on Coordinating Control Method of SMES Based on DSP;
基于DSP的超导储能装置协调控制策略研究
2.
Recently the development of power electronics and superconducting technology m ade it possible that superconducting m agnetic energy storage SMES took part in the power system as FACTS devices to enhance transient stability.
首先讨论了超导储能装置 ( SMES)建模问题 ,根据 SMES样机实验结果 ,构造了 SMES的二阶鲁棒模型 ;然后在单机无穷大系统中 ,得到了含 SMES的电力系统非线性鲁棒模型。
补充资料：超导磁体为主要部件的受控核聚变托卡马克装置
超导磁体为主要部件的受控核聚变托卡马克装置
超导磁体为主要部件的受控核聚变托卡马克装置
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