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Agilent EEsof EDA
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Product Documentation
> RF Design Environment
Documentation |
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Simulation and Optimization Documentation
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Details on using the RF Design Environment simulation controllers: DC, AC, S-Parameter, Harmonic Balance, Circuit Envelope, and Transient/Convolution.
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Details on using the DC simulation controller. This controller is fundamental to all RF/Analog simulations. It performs a topology check and an analysis of the DC operating point. It is typically used for all Analog/RF designs.
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Details on using the AC simulation controller. This controller obtains small-signal transfer parameters like voltage gain, current gain, and linear noise voltage and currents. It is typically used for filter and amplifier designs.
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Details on using the S-Parameter simulation controller. This controller provides linear S-parameter, linear noise parameters, transimpedance, and transadmittance. Can be used to achieve many goals of the AC simulator. It is typically used for filter, oscillator, and amplifier designs.
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Details on using the Harmonic Balance simulation controller. This controller uses nonlinear harmonic-balance techniques to find the steady-state solution in the frequency domain. It is typically used for mixer, oscillator, power amplifier, and transreceiver designs.
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Details on using the Circuit Envelope simulation controller. This controller uses a combination of frequency- and time-domain analysis techniques to yield a fast and complete analysis of complex signals such as digitally modulated RF signals. It is typically used for mixer, oscillator, power amplifier, and transreceiver, and phase-locked loop designs.
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Details on using the Transient/Convolution simulation controller. This controller solves a nonlinear circuit entirely in the time domain using simplified models to account for the frequency-dependent behavior of distributed elements. It is typically used for mixer, power amplifier, and switching circuit designs.
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Details on using Optimization for automatic performance optimization based on a variety of optimizers, and Statistical Design to provide yield analysis and optimization.
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