Edgar J. Kaiser
Certified Consultant
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Posted:
9 years ago
20 déc. 2015, 09:41 UTC−5
The function seems to be correct. You are just not plotting far enough and you have to create a plot with a high resolution grid dataset (100000) otherwise you don't resolve the sharp spikes in the plot.
If you are planning to use this in a time dependent study, you have to take care that the time stepping resolves the spikes. The rectangular pulses will probably get the solver into troubles. You may have to make it smoother.
Cheers
Edgar
--
Edgar J. Kaiser
emPhys Physical Technology
www.emphys.com
The function seems to be correct. You are just not plotting far enough and you have to create a plot with a high resolution grid dataset (100000) otherwise you don't resolve the sharp spikes in the plot.
If you are planning to use this in a time dependent study, you have to take care that the time stepping resolves the spikes. The rectangular pulses will probably get the solver into troubles. You may have to make it smoother.
Cheers
Edgar
--
Edgar J. Kaiser
emPhys Physical Technology
http://www.emphys.com
Please login with a confirmed email address before reporting spam
Posted:
9 years ago
20 déc. 2015, 10:57 UTC−5
Thanks a lot ! , You are right.
I am planing use this function to express pulsed electric field. I have acrylic tube in which inner wall is inserted two parallel electrodes (Ground and Potential). Dielectric in tube inside is a fluid. This fluid must flow through the tube.
First of all, I want to see distribution differences between pulsed electric field and stationary electric field.
Secondly, very interesting for me is distribution differences of heat dissipation.
So I want to develop model which could be used to analyse the impact of different process parameters ( the liquid flow, the inlet temperature, media conductivity, pulse width and frequency, and applied peak voltage) on the distribution of electric field strength, the liquid velocity and turbulence pattern, and the temperature distribution in the tube.
So some advice or examples will be very useful for me ,
Thanks a lot and best regards,
Mindaugas
Thanks a lot ! , You are right.
I am planing use this function to express pulsed electric field. I have acrylic tube in which inner wall is inserted two parallel electrodes (Ground and Potential). Dielectric in tube inside is a fluid. This fluid must flow through the tube.
First of all, I want to see distribution differences between pulsed electric field and stationary electric field.
Secondly, very interesting for me is distribution differences of heat dissipation.
So I want to develop model which could be used to analyse the impact of different process parameters ( the liquid flow, the inlet temperature, media conductivity, pulse width and frequency, and applied peak voltage) on the distribution of electric field strength, the liquid velocity and turbulence pattern, and the temperature distribution in the tube.
So some advice or examples will be very useful for me ,
Thanks a lot and best regards,
Mindaugas
Please login with a confirmed email address before reporting spam
Posted:
9 years ago
29 déc. 2015, 13:30 UTC−5
Hello everybody,
I would be very thankful if somebody help me to find .mph example or some video about heat transfer in fluid when this fluid is treat 30 000 V pulse train and effect turbulent flow ?
DV*(flc2hs(mod(t[1/s],1/f)-1e-9,1e-9)-flc2hs(mod(t[1/s],1/f)-tp,1e-9))
DV - 30 000 V
Thanks a lot,
Mindaugas
Hello everybody,
I would be very thankful if somebody help me to find .mph example or some video about heat transfer in fluid when this fluid is treat 30 000 V pulse train and effect turbulent flow ?
DV*(flc2hs(mod(t[1/s],1/f)-1e-9,1e-9)-flc2hs(mod(t[1/s],1/f)-tp,1e-9))
DV - 30 000 V
Thanks a lot,
Mindaugas