In this thread I will post some modules successfully used for proper VIC operation.
those modules posted here implement the functionality of Stan Meyer´s circuits as found elsewhere in the internet but make use of actual components.
Please don´t post questions or annotations in this thread but post those in my other thread "Comments VIC components modular design" at http://open-source-energy.org/?tid=470&pid=4631#pid4631
that way it´s easier to get the structure straight.
Switch
U1
TC4429 for positive pulse propagation (pulse on = switch closed, pulse off = open switch), TC4420 for inverted pulse propagation
R1 200R for +5V, 640R for +12V pulses
R3 usually direct wire connection
D1, D3
snubber diode low voltage 13V i.e. P6KE13A
D2
suppression for back emf i.e. BYP102
K1
socket to screw Mosfet for easy exchange if blown up
Q1
any N-channel Mosfet i.e. IPW60R099CP
Batt
i.e. 9V Block battery or rechargable (>= 5V <= 12V)
Pulse +5V, Pulse GNDA
these are the pulsing inputs to the switch
Switch+, Switch-
these are the switch connectors to the circuit
This configuration works as a potential free switch. Optocoupler U1 gives galvanic barrier like H11D1.
Switch+ has to be connected to the more positive potential, Switch- to the more negative potential.
Switch needs a potential free power supply (Batt+). This can be a plug in power supply for the grid or a battery/rechargable.
In very high voltage environments there may be a problem to connect to the grid (isolation safety issues). So a 9V battery works as well.
This switch retrofits the SCR/R/H11D1 configuration used in 8XA.
This switch also works fine as an EEC switch with a light bulb.
Please don´t post questions or annotations in this thread but post those in my other thread "Comments VIC components modular design" at http://open-source-energy.org/?tid=470&pid=4631#pid4631.
those modules posted here implement the functionality of Stan Meyer´s circuits as found elsewhere in the internet but make use of actual components.
Please don´t post questions or annotations in this thread but post those in my other thread "Comments VIC components modular design" at http://open-source-energy.org/?tid=470&pid=4631#pid4631
that way it´s easier to get the structure straight.
Switch
U1
TC4429 for positive pulse propagation (pulse on = switch closed, pulse off = open switch), TC4420 for inverted pulse propagation
R1 200R for +5V, 640R for +12V pulses
R3 usually direct wire connection
D1, D3
snubber diode low voltage 13V i.e. P6KE13A
D2
suppression for back emf i.e. BYP102
K1
socket to screw Mosfet for easy exchange if blown up
Q1
any N-channel Mosfet i.e. IPW60R099CP
Batt
i.e. 9V Block battery or rechargable (>= 5V <= 12V)
Pulse +5V, Pulse GNDA
these are the pulsing inputs to the switch
Switch+, Switch-
these are the switch connectors to the circuit
This configuration works as a potential free switch. Optocoupler U1 gives galvanic barrier like H11D1.
Switch+ has to be connected to the more positive potential, Switch- to the more negative potential.
Switch needs a potential free power supply (Batt+). This can be a plug in power supply for the grid or a battery/rechargable.
In very high voltage environments there may be a problem to connect to the grid (isolation safety issues). So a 9V battery works as well.
This switch retrofits the SCR/R/H11D1 configuration used in 8XA.
This switch also works fine as an EEC switch with a light bulb.
Please don´t post questions or annotations in this thread but post those in my other thread "Comments VIC components modular design" at http://open-source-energy.org/?tid=470&pid=4631#pid4631.