* NDM3000 Q1 P-Ch ELECTRICAL MODEL * --------------------------- .SUBCKT NDM3000Q1 20 10 30 Rg 10 1 3 M1 2 1 3 3 DMOS L=1u W=1u .MODEL DMOS PMOS (VTO={-1.7*{-0.00216*TEMP+1.054}} KP={-0.005*TEMP+4.525} + THETA=0.086 VMAX=5E5 TOX=4.25E-8 LEVEL=3) Cgs 1 3 200p Rd 20 4 60m TC=0.0036 Dds 4 3 DDS .MODEL DDS D(BV={20*{0.00064*TEMP+0.984}} M=0.25 CJO=310p VJ=0.51) Dbody 20 3 DBODY .MODEL DBODY D(IS=1.4E-13 N=1 RS=90m TT=29n) Ra 4 2 59m TC=0.0036 Rs 3 5 2m Ls 5 30 0.9n M2 1 8 6 6 INTER E2 8 6 4 1 2 .MODEL INTER PMOS(VTO=0 KP=10 LEVEL=1) Cgdmax 7 4 1100p Rcgd 7 4 10meg Dgd 4 6 DGD Rdgd 4 6 10meg .MODEL DGD D(M=0.31 CJO=600p VJ=0.18) M3 7 9 1 1 INTER E3 9 1 4 1 -2 .ENDS NDM3000Q1 * * NDM3000 Q2 N-Ch ELECTRICAL MODEL * --------------------------- .SUBCKT NDM3000Q2 20 10 30 Rg 10 1 3 M1 2 1 3 3 DMOS L=1u W=1u .MODEL DMOS NMOS (VTO={1.5*{-0.00248*TEMP+1.062}} KP={-0.014*TEMP+7.55} + THETA=0.086 VMAX=5E5 LEVEL=3) Cgs 1 3 359p Rd 20 4 10m TC=0.0036 Dds 3 4 DDS .MODEL DDS D(BV={20*{0.0008*TEMP+0.98}} M=0.35 CJO=290p VJ=0.9) Dbody 3 20 DBODY .MODEL DBODY D(IS=1.4E-13 N=1 RS=40m TT=70n) Ra 4 2 21m TC=0.0036 Rs 3 5 1m Ls 5 30 0.9n M2 1 8 6 6 INTER E2 8 6 4 1 2 .MODEL INTER NMOS(VTO=0 KP=10 LEVEL=1) Cgdmax 7 4 1050p Rcgd 7 4 10meg Dgd 6 4 DGD Rdgd 4 6 10meg .MODEL DGD D(M=0.325 CJO=1050p VJ=0.039) M3 7 9 1 1 INTER E3 9 1 4 1 -2 .ENDS NDM3000Q2 * * NDM3000 Q3 P-Ch ELECTRICAL MODEL * --------------------------- .SUBCKT NDM3000Q3 20 10 30 Rg 10 1 3 M1 2 1 3 3 DMOS L=1u W=1u .MODEL DMOS PMOS (VTO={-1.7*{-0.00216*TEMP+1.054}} KP={-0.005*TEMP+4.525} + THETA=0.086 VMAX=5E5 TOX=4.25E-8 LEVEL=3) Cgs 1 3 200p Rd 20 4 60m TC=0.0036 Dds 4 3 DDS .MODEL DDS D(BV={20*{0.00064*TEMP+0.984}} M=0.25 CJO=310p VJ=0.51) Dbody 20 3 DBODY .MODEL DBODY D(IS=1.4E-13 N=1 RS=90m TT=29n) Ra 4 2 59m TC=0.0036 Rs 3 5 2m Ls 5 30 0.9n M2 1 8 6 6 INTER E2 8 6 4 1 2 .MODEL INTER PMOS(VTO=0 KP=10 LEVEL=1) Cgdmax 7 4 1100p Rcgd 7 4 10meg Dgd 4 6 DGD Rdgd 4 6 10meg .MODEL DGD D(M=0.31 CJO=600p VJ=0.18) M3 7 9 1 1 INTER E3 9 1 4 1 -2 .ENDS NDM3000Q3 * * NDM3000 Q4 N-Ch ELECTRICAL MODEL * --------------------------- .SUBCKT NDM3000Q4 20 10 30 Rg 10 1 3 M1 2 1 3 3 DMOS L=1u W=1u .MODEL DMOS NMOS (VTO={1.5*{-0.00248*TEMP+1.062}} KP={-0.0014*TEMP+7.55} + THETA=0.086 VMAX=5E5 LEVEL=3) Cgs 1 3 359p Rd 20 4 10m TC=0.0036 Dds 3 4 DDS .MODEL DDS D(BV={20*{0.0008*TEMP+0.98}} M=0.35 CJO=290p VJ=0.9) Dbody 3 20 DBODY .MODEL DBODY D(IS=1.4E-13 N=1 RS=40m TT=70n) Ra 4 2 21m TC=0.0036 Rs 3 5 1m Ls 5 30 0.9n M2 1 8 6 6 INTER E2 8 6 4 1 2 .MODEL INTER NMOS(VTO=0 KP=10 LEVEL=1) Cgdmax 7 4 1050p Rcgd 7 4 10meg Dgd 6 4 DGD Rdgd 4 6 10meg .MODEL DGD D(M=0.325 CJO=1050p VJ=0.039) M3 7 9 1 1 INTER E3 9 1 4 1 -2 .ENDS NDM3000Q4 * * NDM3000 Q5 P-Ch ELECTRICAL MODEL * --------------------------- .SUBCKT NDM3000Q5 20 10 30 Rg 10 1 3 M1 2 1 3 3 DMOS L=1u W=1u .MODEL DMOS PMOS (VTO={-1.7*{-0.00216*TEMP+1.054}} KP={-0.005*TEMP+4.525} + THETA=0.086 VMAX=5E5 TOX=4.25E-8 LEVEL=3) Cgs 1 3 200p Rd 20 4 60m TC=0.0036 Dds 4 3 DDS .MODEL DDS D(BV={20*{0.00064*TEMP+0.984}} M=0.25 CJO=310p VJ=0.51) Dbody 20 3 DBODY .MODEL DBODY D(IS=1.4E-13 N=1 RS=90m TT=29n) Ra 4 2 59m TC=0.0036 Rs 3 5 2m Ls 5 30 0.9n M2 1 8 6 6 INTER E2 8 6 4 1 2 .MODEL INTER PMOS(VTO=0 KP=10 LEVEL=1) Cgdmax 7 4 1100p Rcgd 7 4 10meg Dgd 4 6 DGD Rdgd 4 6 10meg .MODEL DGD D(M=0.31 CJO=600p VJ=0.18) M3 7 9 1 1 INTER E3 9 1 4 1 -2 .ENDS NDM3000Q5 * * * NDM3000 Q6 N-Ch ELECTRICAL MODEL * --------------------------- .SUBCKT NDM3000Q6 20 10 30 Rg 10 1 3 M1 2 1 3 3 DMOS L=1u W=1u .MODEL DMOS NMOS (VTO={1.5*{-0.00248*TEMP+1.062}} KP={-0.014*TEMP+7.55} + THETA=0.086 VMAX=5E5 LEVEL=3) Cgs 1 3 359p Rd 20 4 10m TC=0.0036 Dds 3 4 DDS .MODEL DDS D(BV={20*{0.0008*TEMP+0.98}} M=0.35 CJO=290p VJ=0.9) Dbody 3 20 DBODY .MODEL DBODY D(IS=1.4E-13 N=1 RS=40m TT=70n) Ra 4 2 21m TC=0.0036 Rs 3 5 1m Ls 5 30 0.9n M2 1 8 6 6 INTER E2 8 6 4 1 2 .MODEL INTER NMOS(VTO=0 KP=10 LEVEL=1) Cgdmax 7 4 1050p Rcgd 7 4 10meg Dgd 6 4 DGD Rdgd 4 6 10meg .MODEL DGD D(M=0.325 CJO=1050p VJ=0.039) M3 7 9 1 1 INTER E3 9 1 4 1 -2 .ENDS NDM3000Q6 * * * NDM3000 QP P-Ch THERMAL MODEL ( *** PRELIMINARY MODEL ***) * ------------------------ .SUBCKT NDM3000QPTHM 50 40 100 Rop 50 60 1meg ; From input power, use ideal Cop 60 70 1u IC=0 ; opamp to get energy W(t), E_W 40 70 40 60 1meg ; assume Rin=infinite & Ro=0 E_Pave 80 40 VALUE = {V(40,70)/(TIME+1n)} ; Get average power by W(t)/t R80 80 40 1k E_Tja 100 40 VALUE = {V(80,40)*90*V(90,40)}; Tja=Pave(t)*RJA*rja(t) R100 100 40 1k R90 90 40 1k E_rja 90 40 table {TIME} ; Normalized NDM3000 QP P-Ch Single Pulsed rja(t) + (0.0001, 0.002232) + (0.0002, 0.003156) + (0.0005, 0.00499) + (0.001, 0.007057) + (0.002, 0.00998) + (0.005, 0.01578) + (0.01, 0.022316) + (0.02, 0.03156) + (0.05, 0.049901) + (0.1, 0.070571) + (0.2, 0.099802) + (0.5, 0.157801) + (1, 0.223165) + (2, 0.304706) + (5, 0.430226) + (10, 0.532168) + (20, 0.641667) + (50, 0.789139) + (100, 0.876999) + (200, 0.940897) + (500, 1) + (999, 1) .ENDS NDM3000QPTHM * * * NDM3000 QN N-Ch THERMAL MODEL ( *** PRELIMINARY MODEL ***) * ------------------------ .SUBCKT NDM3000QNTHM 50 40 100 Rop 50 60 1meg ; From input power, use ideal Cop 60 70 1u IC=0 ; opamp to get energy W(t), E_W 40 70 40 60 1meg ; assume Rin=infinite & Ro=0 E_Pave 80 40 VALUE = {V(40,70)/(TIME+1n)} ; Get average power by W(t)/t R80 80 40 1k E_Tja 100 40 VALUE = {V(80,40)*90*V(90,40)}; Tja=Pave(t)*RJA*rja(t) R100 100 40 1k R90 90 40 1k E_rja 90 40 table {TIME} ; Normalized NDM3000 QN N-Ch Single Pulsed rja(t) + (0.0001, 0.002232) + (0.0002, 0.003156) + (0.0005, 0.00499) + (0.001, 0.007057) + (0.002, 0.00998) + (0.005, 0.01578) + (0.01, 0.022316) + (0.02, 0.03156) + (0.05, 0.049901) + (0.1, 0.070571) + (0.2, 0.099802) + (0.5, 0.157801) + (1, 0.223165) + (2, 0.304706) + (5, 0.430226) + (10, 0.532168) + (20, 0.641667) + (50, 0.789139) + (100, 0.876999) + (200, 0.940897) + (500, 1) + (999, 1) .ENDS NDM3000QNTHM *