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SIMPLORER User Manual V6.0 - FER-a

SIMPLORER User Manual V6.0 - FER-a

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Component Parameters<br />

<strong>SIMPLORER</strong> 6.0 — <strong>Manual</strong> 137<br />

Description [Unit] Parameter Name Data Type<br />

Transistor Constant at TEMP0 [A/V²] K0 real<br />

Pinch-off-Voltage at TEMP0 [V] VP0 real<br />

Bulk Control Factor BCF real<br />

Bulk Doping [1/cm³] NBULK real<br />

Channel Doping [1/cm³] NCH real<br />

Channel Lenght Modulation Factor KLM real<br />

Saturation Factor A_FET real<br />

Saturation Exponent M_FET real<br />

Exponent of Transfer Characteristic N_FET real<br />

Ideality Factor of Gate Diode; only JFET M0_GATE real<br />

Saturation Diode of Gate Diode; only JFET ISAT0_GATE real<br />

Bulk Resistance of Gate Diode; only JFET RB0_GATE real<br />

Reference Temperature [°C] TEMP0 real<br />

Band Gap Voltage [V] VGAP real<br />

Linear Temperature Coefficient of VP ALPHA_VP real<br />

Exponential Temperature Coefficient of Transistor Constant ALPHA_K real<br />

Exponential Temperature Coefficient of A_FET ALPHA_AFET real<br />

Exponential Temperature Coefficient of M_FET ALPHA_MFET real<br />

Exponential Temperature Coefficient of N_FET ALPHA_NFET real<br />

Breakthrough G-S-Voltage [V] VBREAK_DS real<br />

Breakthrough Drain-Source-Voltage [V] VBREAK_GS real<br />

Breakthrough Drain Current [A] IBREAK real<br />

Breakthrough Junction Temperature [°C] TEMPBREAK real<br />

Drain-Source-Resistance after Fault [Ω] RFAULT_DS real<br />

Gate-Source-Resistance after Fault [Ω] RFAULT_GS real<br />

Drain Connector Resisance RD real<br />

Gate Connector Resistance RG real<br />

Source Connector Resistance RS real<br />

Electrical Behavior Level, Type DYN=1<br />

Apart from the constant gate-source-capacitance, all capacitances are modeled in the same<br />

way. A distinction is made between a region where a depletion capacitance is calculated and<br />

a region with enhancement capacitance behavior. The curves remain differentiable even at<br />

the transition from one region to the other. The transition happens if the difference of a defined<br />

fraction of the diffusion and the voltage across the junction equals zero according to:<br />

SHIFT ⋅ VDIFF – VJNCT = V∗JNCT =<br />

0

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