Low-frequency electric small system design method based on hybrid time domain finite element algorithm
A design method and system design technology, applied in computer-aided design, design optimization/simulation, calculation, etc., can solve problems such as low-frequency collapse, large number of time steps, and system matrix ill-conditioning
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Embodiment 1
[0055] see figure 1 , the embodiment of the invention provides a design method of a low-frequency electrical small system based on a hybrid time-domain finite element algorithm, the design method comprising:
[0056] Step S101, modeling the electronic device, and setting parameter information and incentives of the electronic device to set a calculation area;
[0057] Step S102, performing grid division on the calculation area by preset software, and recording the information of each unit in the calculation area;
[0058] Step S103, use the hybrid time-domain finite element algorithm to calculate and solve the unknown electric field corresponding to the information of each unit, and obtain the parameter value of the low-frequency electric small system.
[0059] In the embodiment of the present invention, the above parameter information includes: the size of the model, the relative permittivity of the model material, the relative permeability of the model material, the conducti...
Embodiment 2
[0075] When the electronic device is a spiral loop inductor, the steps of modeling the electronic device and setting the parameter information and excitation of the electronic device to set the calculation area include:
[0076] Set the number of turns of the inductor;
[0077] Set a rectangular metal frame on the inductor frame as the ground;
[0078] A port connecting the outermost ring of the inductor and the ground is set as the first receiver;
[0079] The other port connecting the center of the inductor to the ground is set as the first signal source;
[0080] Sets the size of the airbox for the first simulation to determine the first computational region.
[0081] In the embodiment of the present invention, when the electronic device is a spiral toroidal inductor, the above steps express the hybrid FETD discrete equation as a matrix equation according to the Galerkin method, and after obtaining the co-vector e including the electric field unknown through the rectangul...
Embodiment 3
[0098] In the embodiment of the present invention, when the electronic device is a wireless power transmission system, the step of modeling the electronic device and setting the parameter information and excitation of the electronic device to set the calculation area specifically includes:
[0099] Arrange three square inductance coils with a side length of 100mm side by side;
[0100] Use the square inductance coil in the middle as the second signal source, and the two square inductance coils at both ends as the second receiver;
[0101] Sets the size of the airbox for the second simulation to determine the second calculation area.
[0102] In the embodiment of the present invention, when the electronic device is a wireless power transmission system, the above steps represent the hybrid FETD discrete equation as a matrix equation according to the Galerkin method, and after obtaining the co-vector e including the electric field unknown through the rectangular equation, further...
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