FPGA based Digital World

Welcome to FPGA based Digital World.
Analog circuit is the basis of electronics, and covers lots of area. |
Transient Circuit Analysis
For transient response of a circuit, several methods are available for analysis.
Modeling in Time Doamin with ODE(Ordinary Differential Equations)
In this case, the input x(t) is a function of time, and the circuit is modeledas ODEs. The reponse y(t) of the system is achieved by solving the ODEs.
For a SISO circuit system, another way to get the response is through the convolution of input x(t) and the impulse response h(t)of the circuit, i.e.,
y(t) = x(t) * h(t)
Modeling in s-Doamin with Laplace Transform
Laplace transform converts differential equations in the time domain into algebraic equations in complex Laplace variable s-domain.
The input signal x(t) can be transformed to s-domain as X(s), and the system characteristic in s-domain is modeled by its transfer function H(s).Then the system response in s-domain is
Y(s) = H(s)X(s)
And the response in time-domain could be achieved by the inverse Laplace transform of Y(s).
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| Basic Laws |
| Basic Analysis Techniques |
| Linear Circuit |
| Analysis Theorem in Linear Circuit |
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| Sinusoidal Steady-State Analysis |
| Sinusoid and Phasor |
| Basic Laws |
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| Frequency Response |
| Non-Sinusoid Steady-State Analysis |
| Transient Analysis |
| First Order Circuits |
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| Two-port Networks |
| Related Knowledge |
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| SMPS Basic Topology |
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