Voltage Controlled DPDT Switch

Components used

SPICE netlist

* **************************************************
* Generated from CircuitSim Schematic
**************************************************
R_R1 N10 N9 1K
R_ROUT1 N4 0 10K
R_ROUT2 N6 0 10K
R_ROUT3 N7 0 10K
R_ROUT4 N5 0 10K
R_RSOURCE N3 N2 1K
xSW1 N3 N4 N6 N10 N7 N5 N1 0 VCDPDT_df933b1e PARAMS: Von=10 Voff=0 Ron=10m Roff=1meg
V_V1 N9 0 dc 3 ac 0 0 distof1 0 0 distof2 0 0
V_V2 N2 0 dc 0 ac 1 0 distof1 0 0 distof2 0 0 sin ( 0 5 10 0 0 0 )
V_VCONTROL N1 0 PULSE(0 10 0 1u 1u {25*0.01/1} {1/1})
E_VP_A1 VP_A1 0 N4 0 1
E_VP_A2 VP_A2 0 N6 0 1
E_VP_A3 VP_A3 0 N7 0 1
E_VP_A4 VP_A4 0 N5 0 1
E_VP_A5 VP_A5 0 N1 0 1

**************************************************
* Models and supporting definitions follow
**************************************************
.model Resistor_1d9c8cf9a r(tc1=0 tc2=0 tnom=27)
.subckt VCDPDT_df933b1e T0 T1 T2 T3 T4 T5 T6 T7 params: Von=1 Voff=0 Ron=1 Roff=1e12
    S_A1 T0 T1 control_normalized T7 SW_df933b1e_A1
    S_A2 T0 T2 control_inverted T7 SW_df933b1e_A2
    S_B1 T3 T4 control_normalized T7 SW_df933b1e_B1
    S_B2 T3 T5 control_inverted T7 SW_df933b1e_B2
    E_CONTROL_NORMALIZED control_normalized T7 VALUE={(V(T6,T7)-Voff)/(Von-Voff)}
    E_CONTROL_INVERTED control_inverted T7 VALUE={1-(V(T6,T7)-Voff)/(Von-Voff)}
    .model SW_df933b1e_A1 SW(Ron={Ron} Roff={Roff} Vt=0.5 Vh=0.1)
    .model SW_df933b1e_A2 SW(Ron={Ron} Roff={Roff} Vt=0.5 Vh=0.1)
    .model SW_df933b1e_B1 SW(Ron={Ron} Roff={Roff} Vt=0.5 Vh=0.1)
    .model SW_df933b1e_B2 SW(Ron={Ron} Roff={Roff} Vt=0.5 Vh=0.1)
    V_STATE_SUPPLY state_supply 0 1
    S_STATE state_supply state control_normalized T7 SW_df933b1e_A1
    R_STATE state 0 {sqrt(Ron*Roff)}
    R_STAB_CA T0 T7 1T
    R_STAB_A1 T1 T7 1T
    R_STAB_A2 T2 T7 1T
    R_STAB_CB T3 T7 1T
    R_STAB_B1 T4 T7 1T
    R_STAB_B2 T5 T7 1T
.ends VCDPDT_df933b1e

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* Simulation settings
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.tran 1m 1e12 0 1m
.save V(VP_A5) V(VP_A1) V(VP_A2) V(VP_A3) V(VP_A4) v(xSW1.state)
.end