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If you are considering buying an accurate replica of the original Lakhovsky Multiple Wave Oscillator, you may have noticed various “Multiple Wave Oscillator” devices advertised for sale on the internet. Some of them are well built, and many have very little in common with the original devices produced by Dr Georges Lakhovsky’s former company, Laboratoires COLYSA, between 1931 and 1940.
In 2009, three original and still functional Lakhovsky Multiple Wave Oscillators were discovered in Dr Vassileff’s former offices in Italy. Through the efforts of the Multiwave Research team, which includes Bruno Sacco, Jean Claude Dupuy and Tony Kerselaers, those devices were meticulously analysed and reverse-engineered. Bruno Sacco and Tony Kerselaers published their findings in the e-book “The Lakhovsky Multiple Wave Oscillator Secrets Revealed”. It is practically the only reliable source of available historical and technical data on the original Multiple Wave Oscillator devices.
Based on their technical analysis, we compiled a list of 9 essential features to consider when buying a replica of the Lakhovsky Multiple Wave Oscillator. These features are critical for achieving the effects of the original devices. The list can serve as a guideline when evaluating offers on the market.
1) Phase Opposition of the Transmitted and Reflected Signals
The phase opposition of signals is the fundamental principle behind the operation of the original Lakhovsky Multiwave Oscillators. The transmitted and reflected signals should be inverted in phase by 180°, so that they meet in opposition in the space between the antennas. This phase opposition is essential to creating the high-scalar-potential point. Without this phase opposition, the device would not reproduce the operating principle of the original Multi-Wave Oscillator.
2) Lakhovsky MWO Antennas
A Lakhovsky MWO antenna has twelve split-ring resonators, with the largest split-ring 50 cm in diameter. It is made of metal pipes suspended in space with twisted silk ribbons to shape and direct the signal radiation lobe towards the opposite antenna. Although planar antennas would work to some extent, their behaviour differs from that of tube split-ring resonators. The antennas should be easily rotated into the upper or lower vertical position.
3) Resonator Coils and the Main Resonant Frequency
The main resonant frequency of high-voltage resonator coils should fall within the frequency range of the original Lakhovsky Multiple Wave Oscillator devices. The high-voltage resonator coils should be designed to prevent electrical corona and the resulting damage to the wire insulation. All high-voltage cables should be heavily insulated. For safety reasons, the Tx resonator coil’s high-voltage cable can be replaced with a coaxial cable whose shielding is grounded.
4) Adjustable Input Parameters
One should be able to precisely adjust the operating input parameters to set the desired output voltage potential while monitoring the input parameters (voltage and current).
5) Adjustable Discharge Pulse Rate
The discharge pulse rate of the V-type quenched spark gap should be precisely adjustable and repeatable. The operator should be able to precisely set and adjust the pulse rate while monitoring the spark gap through a (preferably UV-protected) control window. The spark gap must be capable of fast spark-quenching action and of repeatable adjustment.
6) Proper Cabling
The cables should be ozone-resistant to provide an added level of safety. Internal cabling of electrical mains and HV transformer output sections should be protected from ozone-induced decay. External high-voltage cabling is functionally part of the primary tank circuit, meaning that if the cable insulation fails, there is an increased risk of accidental electrical shock, which could be very dangerous due to the significant amount of energy stored in high-voltage capacitors. The quality of grounding and the length of cables determine the shape of the signal envelope, which appears to be a crucial factor in the device’s proper operation.
7) Grounded Metal Enclosure
The device enclosure should be made of metal and electrically grounded because a grounded metal enclosure reduces substantial radio-frequency interference and provides protection against possible electrical shock to the operator. Using an entirely grounded metal enclosure is the most suitable way to shield the environment from RF interference.
8) High-Quality Custom-Made Parts
All critical parts/components should be sufficiently robust to withstand any possible electrical extremes and operate reliably for many years, including high-voltage capacitors, primary tank wires, spark gap, safety spark gap, high-voltage transformer, and high-voltage resonators.
9) Essential Accessories
The replica set should include historically used accessories, such as a capacitively coupled footplate and a pair of handheld spiral applicators. The original Lakhovsky Multiple Wave Oscillators were each equipped with a capacitively coupled footplate and handheld spiral applicators to focus high-frequency displacement currents on specific treatment areas. The historical notes describe them as an essential part of the procedures used by Georges Lakhovsky and Dr Vassileff.
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