if you look at this pic where i have the bottom traces overlaying the top traces u can see that pin 3 of the 4046 is going to two locations. on the topside its going to the 10k resistor of the driver circuit and then splits to one output of the card and also to the base of the first transistor. Pin 3's bottom trace goes to pin 8 of the 4001 down by the scanning circuit and which is then NORed with another signal which is connected by a wire connected to the pin 9 then this signal comes out of pin 10 and then back up to pin 5 of the 4046.
ok let me see if I can answer these questions for ya. Fig. 12 generates the gate frequency, lets say 500 Hz @ 50% duty cycle, which is then sent to fig. 2 via input "G". The duty cycle of this frequency will then be varied from 10% - 90% depending on the W.O.T. and rotation speed of the Distributor LED pickups. All these combined will determine the amount of voltage being applied to the Primary coil. This same frequency from fig. 12 will be sent to fig. 6 via input "B" or from fig. 2 via input "M1". This 500 Hz frequency's duty cycle is then manually set between 10% - 90% duty cycle independent of fig. 2. This variable gated pulse is then input into the PLL circuit via pin 5 through the two NOR gates and if you notice at the 2nd NOR gate u have the resonant frequency being NORed will the gate pulse. The PLL will output the the resonant frequency at pin 4 which is then routed back through pin 3 and into the 2nd NOR gate. The truth table for a NOR gate shows that you will get a HIGH only when both inputs are LOW. So the longer the gate pulse time is off, the more resonant pulses you will get into pin 5 via the NOR gate. This resonant frequency is steadily being match with the frequency from the feedback which is sent into the PLL via pin 14. Hope this helped answer some of your questions. I will try to draw up a logical output for the circuit and post it on here sometime this week.
Looks to follow the same principals as the "Kelvin Water Dropper" to create a potential difference between the two elements. You can read more about this process here http://en.wikipedia.org/wiki/Kelvin_water_dropper
No I've never seen any of the circuits in the GMS. It's definitely not a 555, for one he shows in the schematic that there are 10 connections, a 555 only has 8 pins. The reason for the logic gates and the capacitor are to convert the duty cycles of the incoming puts to a very short pulse duty cycle to be used as a trigger for the 74122 chip. Once I finish putting this circuit together, I will show u guys what I'm talking about.
Here are some images of the 5 coil VIC that I made along with the cores. I just need to order the wire and wrap the coils now. Hopefully I'll have this done by the time I finish up the circuit.
Hey Don, I looked over the circuit and this is what I've come up with. There are 3 OpAmps on the Voltage Amplitude (fig 4) and theres also one on the Analog Voltage Generator (fig 3) and I think the one on fig 3 is on the vic card and this why u have to signals going into that OpAmp...one signal from the RPM Idling and the othere from the Analog Voltage. I think he just mounted the four OpAmps on the VIC card. If you have photos of fig 3 you should check and see if theres an OpAmp on the other side of the "Manual Speed Cal." and the "Run Accelerator" switch. Check that and let me know if this is correct.
Here are some prototype pics of the 5 coil VIC bobbins that I had made today. I used AutoCAD to draw them up and then transferred the drawing to a 3D printer which made them out of ABS Plastic. It took about 8 hours for these to be made.
The cap is in VIC circuit, its there to block the straight lying 5v DC and to allow the pulsed DC to past so that it doesn't short out. The reason I also added the AM signal is because at resonance that's the wave you should get.
Yes I have this file in Multisim 10 also, here it is below.
yea I noticed that there was no connection to the 4017's....My guess based on Stan and Puharich's writings is that the center frequency is 3980 Hz. So if you have the frequency set to scanning a range of +- 2000 hz from this center frequency it would be 1980 Hz - 5980 H. By setting it up this way you will have waveform that would look like the image below and it would peak at the center frequency. (http://www.globalkast.com/images/tonywoodside/Freq_Burst.png)
all the voltages from the output of the gated pulsed via the transistor (vee/vcc) are 12v. The scanning range is set by pin 4 and the 4017, so for example the pulses that come out at pin 4 go to the 4017 which will be divided by 10 and are then sent back into the PLL via pin 3 and also these pulses are being fed back in with the gate pulse via pin 5. but the pulses coming straight out pin 4 could be 1khz -10khz and then once they go through the 1st 4017 its range is 100hz - 1khz and so on.
Yes sir, Thats the cap Im talking about also. if you close you can see that its a 10uF 25v polarized cap. The scanning circuit has an on-time of 3 sec. and an off-time of 1.5 sec. this will cause a modulation of the frequency and coincides with what Puharich says about the voltage modulation of 3 sec. or 0.125 Hz - 0.250 Hz, which is the Nuclear Magnetic Relaxation time of the water molecule. The 1.5 sec. off-time allows the water molecule to recover. Heres what i have together as of right now, one photo has the component values and the other has the bottom traces overlaying the component side of the board.
here are some of the circuits that I have almost complete and ready for testing. Pictured below are the Resonant Scanning Circuit and Pulse Indicator Circuit. (http://www.globalkast.com/images/tonywoodside/Pulse_Indicator_Circuit_top.jpg)
Yea I referred to this is an earlier post about the VIC. Look at the excerpt from one his Patent 92007861 below. He's basically saying the Sec. = 10X Primary and the same for the chokes and then he's just combining them and saying 30:1 step-up. (http://www.globalkast.com/images/stanmeyer/patent_92007861.PNG)
Hey Donald, From what I've been able to make out is that this circuit board contains part of the "Analog Voltage Generator", "Voltage Amplitude Control", "Cell Driver", "PLL", "Resonant Scanning Circuit", and "Pulse Indicator Circuit". Still working most of it out.
Thanks so much Don for the VIC card circuit. If I'm looking at it right, it confirms the scan time that I was thinking it was. Puharich says the NMR of water is approx. 3 sec or between 0.125 Hz - 0.250 Hz. I worked out the scan time and its set to 0.219 Hz with an on time of 3.05 sec and an off time of 1.52 sec. Again Don thanks for the post!!!!
All my research has lead me to the conclusion that Stan was doing the same as Puharich, except Stan refined the method and made it produce a lot more gas output.