1) LC resonance
LC共振
1.
Study of the LC resonance giant magneto-impedance effect;
LC共振型巨磁阻抗效应的研究
2.
The giant magneto-impedance (GMI) effects have been investigated for the LC resonance composite wires and their mechanisms are analyzed.
研究了LC共振型复合结构丝的巨磁阻抗效应并作了机理分析。
3.
In this dissertation,2 types CoP/Inulator/BeCu composite wires,the ordinary type and the LC resonance type,have been prepared by electroless deposition.
本文采用化学镀工艺制备了常规型和LC共振型两种CoP/Insulator/BeCu巨磁阻抗复合结构丝,利用镀速测量、阻抗分析法、复数磁导率、简化等效电路模型等研究了工艺条件、几何结构、后处理工艺对材料的GMI数值、GMI特性和GMI磁场灵敏度的影响,主要内容和结果如下: 1。
2) resonance frequency f r of LC
LC共振频率
3) composite wire LC-resonator
LC共振型复合结构丝
5) LC oscillator
LC振子
1.
A method of discrete feedback control is adopted to control synchronously a category of hyperchaotic system with four-dimensional LC oscillator so that fast and global synchronization of hyperchaotic systems has well been realized under the condition of parameter mismatching.
采用离散反馈控制的方法,对一类四维LC振子的超混沌系统进行同步控制,在参数不匹配的情况下很好地实现了超混沌系统的快速全局同步,数值计算表明该方法具有可行性和一定的理论价值。
2.
Then the paper analyzed the possibility by using the Lyapunov stability theory that it is possible to realize synchronization of two 4D LC oscillator hyperchaotic system with one way coupling and one single variable,and it got the synchronization requirement for the controller.
采用误差变量的线性组合对超混沌系统进行单向反馈控制,解析地证明了实现同步的可能性,从Lyapunov理论角度分析了对四维超混沌LC振子采用单变量单向耦合的可行性,求出同步所需控制器要满足的条件,当驱动系统参数做周期变化时,应用文中的控制器很好地实现了两个超混沌系统的同步。
6) LC oscillator
LC振荡器
1.
This article introduces how to simulate LC oscillator using EWB.
分别对 LC振荡器的元器件参数改变、起振过程、振荡电压波形及间歇振荡进行了观察和分析。
2.
The second one is a CMOS LC oscillator and its transient simulation results were given in Candence.
第二种在CMOS工艺下,用LC振荡器实现2。
3.
Three types of common problems(non-vibrating,instability and lack of equipment) in LC oscillator design and commissioning were studied.
对LC振荡器设计与调试中的三类常见问题(不起振、不稳定和缺少仪器)进行了研究,通过实例对产生问题的可能原因进行了归纳,进而借助关键的测量与分析将其原因逐步缩小,最后聚焦到问题的实质并解决。
补充资料：电子自旋共振(见电子回旋共振)
电子自旋共振(见电子回旋共振)
electron spin resonance
电子自旋共振eleetron spin resonanee见电子回旋共振。
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