Here’s more photos of the actual unit.
It took me half a day to remove the 50+ years of accumulated crud from the outer case! It turns out the covering isn’t brown at all, but black.
The two power transformers drive the vacuum tube oscillators. The coil and cap on the left generate the shortwave carrier frequency. The row of switches across the top select different resistances to tune the frequencies. On the right is a small electric motor driving a ratchet gear, which rotates to make-and-break the leaf switches attached to it. The tubes are under the row of switches, not visible in this photo.
I realize that what I have here is a very large, very powerful “zapper” device. Using it as described in the manuals is one thing, but I’m thinking now about ways to use it in more purely radionic workings.
I have two outputs to work with: a pulsed electromagnetic “zapper” with its own magnetic platforms, and a shortwave energy transmitter with antenna plates.
Under the lid of the device is a compartment to store all of the accessories. It may be possible to use that section for expansion circuitry. The bottom of the compartment lifts completely out to expose the inner components. I could design a panel containing additional circuitry or devices that would install directly into it that space without having to do any actual modifications to the unit (it’s an antique and I’m reluctant to alter it.) If needed, tap into the circuitry with alligator clips. That way, simply remove and unclip the panel, lift it out, put the blank panel back in, and it’s restored to the original.
A witness well could be linked to the tuning coils of the transmitter via induction – I mount the well with its coil positioned above the small Tesla coil in the machine.
One of the test functions is to determine the circuit is plugged in with it’s polarity correct, otherwise the machine won’t work. To test, plug in the power cable, and with the machine turned OFF, touch the metal test button on the front panel. If the polarity is correct the neon bulb will glow. So I tried an experiment with my remote stick pad: I clipped a lead to the button and ran a wire to the pad’s input post, and when I stroked the stick pad, the lamp glowed. This is even though the pad surface is bakelite (under the bakelite is layered a brass plate, a wood plate and a copper bifilar coil – a basic orgone accumulator) the induction from the body’s capacitance is sensed by the Oscilloclast’s circuitry. So, that gives me a stick plate function.
The other thing I want to install is a 1K ohm linear precision potentiometer, in series with the rest of the push-button activated reisitance switches. Each switch has a 1k ohm resistance coil, so each button adds 1k ohms to the circuit’s resistance. But there’s no tuning in-between those 1k values. Add an additional potentiometer, and it spans an extra 1k ohms, which makes it tunable manually. This gives me a tuning system, so with that and the stick-pad I can do scanning with the machine.
Place a witness in the well, and with the power off, stroke the pad while tuning the potentiometer knob (and the neon bulb glows nicely!) Start with the ‘0’ button engaged, and if I don’t get a stick reaction, press the next button and keep scanning. Note where I find the stick reactions, and treat (target) on those frequency rates.
I might just make another loop antenna (a BIG one) for transmitting over distances.
Sounds like work! But it’ll be a lot of fun, and I’ll have a very unique, powerful Radionics machine to work with.
Update: I’ve confirmed that the magnetic pads do generate magnetism (a LOT of magnetism!) and that the shortwave pads transmit a radio signal at 4.1 to 4.3 MHz, carrying an amplitude modulated (AM) audio signal: a simple square-wave “buzz” around 480Hz (probably derived from the 60Hz AC mains frequency.) Luckily, the 4.0 to 4.438 MHz band is assigned (in the US) to marine digital radio (mobile) communications, and I don’t live very near the water. Otherwise I might be broadcasting noise blasts to marine cellphones!