「$MaterialParameter」:修訂間差異
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=='''Format'''== | =='''Format'''== | ||
$MaterialParameter | $MaterialParameter | ||
'' | ''type<sub>dis</sub> N ε<sub>r,∞</sub> μ<sub>r</sub> σ<sub>E</sub> σ<sub>H</sub>'' | ||
''par<sub>1</sub>(1) par<sub>1</sub>(2) par<sub>1</sub>(3)'' | |||
''par<sub>2</sub>(1) par<sub>2</sub>(2) par<sub>2</sub>(3)'' | |||
. . . | |||
. . . | |||
. . . | |||
''par<sub>p</sub>(1) par<sub>p</sub>(2) par<sub>p</sub>(3)'' | |||
. . . | |||
. . . | |||
. . . | |||
''par<sub>N</sub>(1) par<sub>N</sub>(2) par<sub>N</sub>(3)'' <font color=green>// where ''type<sub>dis</sub>'' and ''N'' are integers, but the others are floating points.</font> | |||
<font size=3> | <font size=3> | ||
Refer to Chap. 9 in p.353 - p.368.<br> | |||
''type<sub>dis</sub>'' means the type of dispersive model. <br> | |||
''N'' means the number of poles in this material. <br> | |||
''ε<sub>r,∞</sub>'' is the relative permittivity at infinite frequency, <br> | |||
''μ<sub>r</sub>'' is relative permeability, <br> | |||
''σ<sub>E</sub>'' is electric conductivity, <br> | |||
and ''σ<sub>H</sub>'' is equivalent magnetic loss, respectively. | |||
</font> | </font> | ||
{| class=wikitable style="text-align: center | |||
|+ | |||
|- | |||
|| Models || ''type<sub>dis</sub>'' || par<sub>p</sub>(1) || par<sub>p</sub>(2) || par<sub>p</sub>(3) | |||
|- | |||
|| non-dispersive || 0 || 0 || 0 || 0 | |||
|- | |||
|| Debye || 1 || Δε<sub>p</sub> || τ<sub>p</sub> || 0 | |||
|- | |||
|| Lorentz || 2 || Δε<sub>p</sub> || ω<sub>p</sub> || δ<sub>p</sub> | |||
|- | |||
|| Drude || 3 || ω<sub>i</sub> || γ<sub>p</sub> || 0 | |||
|} | |||
<math>\varepsilon(\omega) = \varepsilon_\infty + \sum_{p=1}^P \chi_p(\omega)</math><br> | |||
<font size=4>Debye model: </font><math>\chi_p(\omega) = \frac{\Delta\varepsilon_{p}}{1+j\omega\tau_p}</math><br><br> | |||
<font size=4>Lorentz model: </font><math>\chi_p(\omega) = \frac{\Delta\varepsilon_{p} \omega_p^2}{\omega_p^2+2j\omega\delta_p-\omega^2}</math><br><br> | |||
<font size=4>Drude model: </font><math>\chi_p(\omega) = -\frac{\omega_p^2}{\omega^2-j\omega\gamma_p}</math><br><br> | |||
=='''Example'''== | =='''Example'''== | ||
$NumberofObject | |||
2 | |||
$MaterialParameter | $MaterialParameter | ||
2 3 10 1 0 0 | 2 3 10 1 0 0 | ||
3 1.2566e15 1e14 | |||
3 2.5133e15 2e14 | |||
3 3.7699e15 3e14 | |||
2 2 10 1 0 0 | |||
3 1.2566e15 1e14 | |||
3 2.5133e15 2e14 | |||
== '''Related commands''' == | == '''Related commands''' == | ||
: [[$ | : Input file 1: [[$NumberofObject]], [[$MaterialStructure]] | ||
: Input file 2: [[$Backgroundparameter]] | |||
於 2020年3月25日 (三) 07:16 的最新修訂
Format
$MaterialParameter typedis N εr,∞ μr σE σH par1(1) par1(2) par1(3) par2(1) par2(2) par2(3) . . . . . . . . . parp(1) parp(2) parp(3) . . . . . . . . . parN(1) parN(2) parN(3) // where typedis and N are integers, but the others are floating points.
Refer to Chap. 9 in p.353 - p.368.
typedis means the type of dispersive model.
N means the number of poles in this material.
εr,∞ is the relative permittivity at infinite frequency,
μr is relative permeability,
σE is electric conductivity,
and σH is equivalent magnetic loss, respectively.
| Models | typedis | parp(1) | parp(2) | parp(3) |
| non-dispersive | 0 | 0 | 0 | 0 |
| Debye | 1 | Δεp | τp | 0 |
| Lorentz | 2 | Δεp | ωp | δp |
| Drude | 3 | ωi | γp | 0 |
Debye model:
Lorentz model:
Drude model:
Example
$NumberofObject 2 $MaterialParameter 2 3 10 1 0 0 3 1.2566e15 1e14 3 2.5133e15 2e14 3 3.7699e15 3e14 2 2 10 1 0 0 3 1.2566e15 1e14 3 2.5133e15 2e14
Related commands
- Input file 1: $NumberofObject, $MaterialStructure
- Input file 2: $Backgroundparameter