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Posted:
5 years ago
3 dic 2019, 02:00 GMT-5
Try to express charge density with built-in field variables in the RF-module.
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ZHANG, Pu
School of Physics,
Huazhong University of Science and Technology
Try to express charge density with built-in field variables in the RF-module.
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Posted:
5 years ago
3 dic 2019, 03:01 GMT-5
Try to express charge density with built-in field variables in the RF-module.
thanks for answering.
i tried to find the charge density variable when plot ,but failed .i can only find some variables about current density in the expression node under rf module.could you give me more details about the charge density variables and where i can find it .
thank you very much!
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chase the lust given by myself
>Try to express charge density with built-in field variables in the RF-module.
thanks for answering.
i tried to find the charge density variable when plot ,but failed .i can only find some variables about current density in the expression node under rf module.could you give me more details about the charge density variables and where i can find it .
thank you very much!
Robert Koslover
Certified Consultant
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Posted:
5 years ago
3 dic 2019, 10:46 GMT-5
Updated:
5 years ago
3 dic 2019, 05:48 GMT-5
For a conducting surface in air or vacuum, you could plot
(nx * emw.Ex + ny * emw.Ey + nz * emw.Ez) * epsilon0_const
which is the surface charge density that follows from Gauss' law.
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Scientific Applications & Research Associates (SARA) Inc.
www.comsol.com/partners-consultants/certified-consultants/sara
For a conducting surface in air or vacuum, you could plot
**(nx * emw.Ex + ny * emw.Ey + nz * emw.Ez) * epsilon0_const**
which is the surface charge density that follows from Gauss' law.
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Posted:
5 years ago
3 dic 2019, 22:11 GMT-5
For a conducting surface in air or vacuum, you could plot
(nx * emw.Ex + ny * emw.Ey + nz * emw.Ez) * epsilon0_const
which is the surface charge density that follows from Gauss' law.
thank you very much ,your advices help me a lot.
your method inspires me to try that expression(d(Ex,x)+d(Ey,y))to plot a 2d distribution.and i got a picture attached.
thank you again ,you really helped me!
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chase the lust given by myself
>For a conducting surface in air or vacuum, you could plot
> **(nx * emw.Ex + ny * emw.Ey + nz * emw.Ez) * epsilon0_const**
>which is the surface charge density that follows from Gauss' law.
thank you very much ,your advices help me a lot.
your method inspires me to try that expression(d(Ex,x)+d(Ey,y))to plot a 2d distribution.and i got a picture attached.
thank you again ,you really helped me!
Please login with a confirmed email address before reporting spam
Posted:
5 years ago
4 dic 2019, 00:41 GMT-5
For a conducting surface in air or vacuum, you could plot
(nx * emw.Ex + ny * emw.Ey + nz * emw.Ez) * epsilon0_const
which is the surface charge density that follows from Gauss' law.
thank you very much ,your advices help me a lot.
your method inspires me to try that expression(d(Ex,x)+d(Ey,y))to plot a 2d distribution.and i got a picture attached.
thank you again ,you really helped me!
you see,in the picture the current flow from red to blue :-)
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chase the lust given by myself
>>For a conducting surface in air or vacuum, you could plot
>> **(nx * emw.Ex + ny * emw.Ey + nz * emw.Ez) * epsilon0_const**
>>which is the surface charge density that follows from Gauss' law.
>
>thank you very much ,your advices help me a lot.
>your method inspires me to try that expression(d(Ex,x)+d(Ey,y))to plot a 2d distribution.and i got a picture attached.
>thank you again ,you really helped me!
you see,in the picture the current flow from red to blue :-)