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首页> 外文期刊>IEEE Transactions on Plasma Science >CTLSS-an advanced electromagnetic simulation tool for designing high-power microwave sources
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CTLSS-an advanced electromagnetic simulation tool for designing high-power microwave sources

机译:CTLSS-用于设计大功率微波源的高级电磁仿真工具

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Simulation-based-design (SBD) techniques to achieve "first-pass design success" depend on the development of fast, accurate, realistic models that can handle material properties, geometry, and appropriate boundary conditions. This paper describes a new three-dimensional (3-D) electromagnetic and large-signal simulation tool. Cold-Test and Large-Signal Simulator (CTLSS), which has been developed as part of an SBD tool suite for vacuum electron devices. Computational electromagnetic codes are essential for applying the SBD methodology to the design of vacuum electron devices and components. CTLSS offers the unique advantage that its computational electromagnetics model is linked intimately with a large-signal simulation tool for computing the electron-wave interaction in the radiating structure. Currently, this link has been implemented for helix traveling-wave tubes (TWTs) only, using the CHRISTINE code as the large-signal model, but a new, general, large-signal model is under development and is described in this paper. The electromagnetic simulation engine in CTLSS has been designed and implemented as a volumetric frequency-domain model that can handle both resonant eigenvalue problems, using the Jacobi-Davidson algorithm, and nonresonant driven-frequency problems, using the quasi-minimal residual (QMR) technique to invert the non-Hermitian matrices that often occur in real problems. The features and advantages of this code relative to other models and results from the code for several classes of microwave devices are presented.
机译:基于仿真的设计(SBD)技术能否获得“首过设计成功”,取决于开发能够处理材料属性,几何形状和适当边界条件的快速,准确,现实的模型。本文介绍了一种新的三维(3-D)电磁和大信号仿真工具。冷测试和大信号模拟器(CTLSS),已开发为真空电子设备的SBD工具套件的一部分。对于将SBD方法应用于真空电子设备和组件的设计,计算电磁代码必不可少。 CTLSS具有其独特的优势,即其计算电磁模型与大信号仿真工具紧密相连,该工具可计算辐射结构中的电子波相互作用。当前,使用CHRISTINE代码作为大信号模型,仅对螺旋行波管(TWT)实现了此链接,但是正在开发一种新的通用大信号模型,并在本文中进行了描述。 CTLSS中的电磁仿真引擎已设计并实现为体积频域模型,可以使用Jacobi-Davidson算法处理共振特征值问题,并使用准最小残留(QMR)技术处理非共振驱动频率问题反转经常在实际问题中出现的非Hermitian矩阵。介绍了此代码相对于其他模型的功能和优点,以及该代码对几种微波设备的使用结果。

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