Semistate Microelectronic Circuit Design Theory

本研究的主题是微电子电路实现的半静态设计理论的发展。这些理论面向于提出者具有特殊专业知识的领域的应用，例如用于打结机器人的协调手臂控制电路、神经型滞后微系统、用于无噪声信号处理的孤子电路以及用于非侵入性确定耳朵参数的Kemp回波模拟器。半静态描述是描述微电子系统的理想方法，因为半静态方程同时包含动态和非动态描述，并且微电子系统通过电容效应涉及动力学，而通过阻控源效应涉及非动力学。现在有大量关于半状态描述系统的分析的文献，特别是关于所产生的方程的解。然而，在半状态描述系统的设计领域中可用的很少。这项研究涉及设计理论的发展，特别是在半状态充分发挥作用的领域，包括滞后和结点振荡器。这些理论都是面向上述应用的。

The main theme of this research is the development of semistate design theories for microelectronic circuit realization. The theories are oriented toward applications in areas where the proposers have particular expertise, such as coordinated arm control circuits for knot tying robots, neural-type hysteretic microsystems, soliton circuits for noiseless signal processing, and Kemp echo simulators for noninvasive determination of ear parameters. The semistate description is ideal for characterizing microelectronic systems, since semistate equations simultaneously incorporate dynamic and nondynamic descriptions and microelectronic systems involve dynamics through capacitive effects and nondynamics through resitive-controlled source effects. There is now a large literature on the analysis of semistate described systems with particular reference to solution of the resulting equations. However, very little is available in the area of design of semistate described systems. This research deals with the development of design theories, especially in the areas where the full power of the semistate comes into play, including hysteresis and knot oscillators. The theories are oriented toward the above mentioned applications.