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Re: ScanTesla program -> Optimization
- To: tesla@xxxxxxxxxx
- Subject: Re: ScanTesla program -> Optimization
- From: "Tesla list" <tesla@xxxxxxxxxx>
- Date: Thu, 19 May 2005 10:44:55 -0600
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- Delivered-to: tesla@pupman.com
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- Resent-date: Thu, 19 May 2005 10:46:34 -0600 (MDT)
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Original poster: "Antonio Carlos M. de Queiroz" <acmdq@xxxxxxxxxx>
Tesla list wrote:
Original poster: Terry Fritz <teslalist@xxxxxxxxxxxxxxxxxxxxxxx>
The step function and input square wave (Fourier series) should be about
10000X faster to compute than a pure say 10-nS stepwise number grinder.
For the linear time-invariant case, that is the way to go. Program like
MathCad can also reduce the equations to run faster. But the equation are
not super bad.
Actually, you can consider a periodical input, with n square wave cycles
and m cycles with zero input, with a period of n+m cycles, decompose
the waveform in a Fourier series, use sinusoidal steady state analysis
for each component, and add the results in the time domain. This will
compute the waveforms correctly, with the transients.
A problem is the interpretation of the input voltage. We already discussed
about short-circuiting the input not being a great idea, because this
increases the input current. To let the diodes of the driver conduct
produces a square wave as long as there is current, but the square
wave is synchronized with the current, and there is no to include
feedback on this analysis.
Antonio Carlos M. de Queiroz