Model MD-1G/UA The Vril Lakhovsky Multiwave Oscillator (MWO), model MD-1G/UA, represents the pinnacle of A & P Electronic Media’s engineering prowess, now in its seventh generation since production began in 2017–2018. Manufactured in Spokane, Washington, USA, under the prestigious Vril product line, the MD-1G/UA, where MD stands for Modulator, 1G denotes the first model’s seventh iteration, and UA signifies Invisible Rays, per authentic U.S. Navy abbreviations, embodies a 100% electrically correct replication of Georges Lakhovsky’s original design, refined through years of relentless innovation in manufacturing processes. This cutting-edge device, one of only two authentic MWOs worldwide, delivers unparalleled performance for researchers exploring longitudinal waves and displacement currents, cementing its status as a groundbreaking tool in frequency research.

Vril: Authentic Lakhovsky Legacy The Vril Lakhovsky Multiwave Oscillator (MWO), produced by A & P Electronic Media, is a cornerstone of frequency research, delivering a 100% electrically correct replication of Lakhovsky’s original machine. Until around 2012, every device claiming to be an MWO was speculative; Lakhovsky’s production units remained an enigma. European engineers changed this by reverse-engineering surviving MWOs, publishing a report that revealed the true design, debunking underpowered, balanced units with no connection to Lakhovsky’s vision. An authentic MWO is defined by three inherent imbalances, engineered by Lakhovsky to maximize harmonic generation through frequency clashing: Differing Coil Turns: The transmitting (TX) coil’s secondary has a slightly different number of turns than the receiving (RX) coil’s secondary, creating wave asymmetry. Unequal Coil Distances: The transmission distance from the primary coil (on the TX side) to its secondary is tightly coupled but the distance from the primary to the RX secondary is over multiple feet, enhancing harmonic dissonance. Grounded Phase: One phase is grounded, forcing emissions to split, partially reaching the opposite antenna and partially driving flux downward to ground, crucial to Lakhovsky’s design, unlike balanced units where emissions form a closed loop, “bathing” anything between the antennas. Devices lacking these features are inauthentic and misrepresent Lakhovsky’s legacy; they have no right to his name. Only A & P Electronic Media (via Vril) and the Croatian manufacturer produce true MWOs. This MWO can produce up to hundreds of thousands of volts, with an adjustable, quadruple spark gap facilitating the transmission of longitudinal waves via electrostatic propagation. Its development reflects a unique genealogy: Bob Beck popularized the MWO through talks, George Van Tassel’s Integratron was inspired by it, Peter Lindemann and Eric Dollard studied speculative MWO theories at Borderlands (without a working unit), and Paul Babcock built a homemade version from the 2012 report. Inspired by Babcock’s unit, A & P Electronic Media produced it, with input from Lindemann and design/refinement by Dollard, who created the Golden Ratio PCB antenna. Beck’s past funding of Dollard and Dollard’s Integratron work add to this unmatched lineage. Assembly takes ~10 minutes with one person, with a walk-through tutorial available for ring/PCB antenna and oscillation transformer use. This video shows the ring antenna setup, the PCB antenna setup and the oscillation transformer setup.

Never turn on the pulse modulator unless the antenna cable system is fully hooked up and plugged in. Default: unbalanced mode No OT. Both coil cables run straight to the back of the pulse modulator, plus a ground wire from an earth rod. Nothing goes in the green jack. A1: Unbalanced, front view. Cables run to the back of the modulator.

A2: Unbalanced, from behind. Rear caps, plugs, and the cables landing on the back panel.

A3: Unbalanced, back panel. Green jack stays empty.

Balanced mode: with the oscillating transformer The OT sits on top of the modulator as a balanced, centre-tapped primary, bypassing the primary on the TX coil. B1: Balanced, front view.

B2: Balanced, from behind. OT on the modulator, everything landing on the back panel.

B3: Balanced, OT to back panel. Rear view.

What’s Included: 1 x Pulse modulator 1 x Cable set 2 x stand platforms 2 x upright stand poles 1 x TX coil (with mounting for either copper ring or pcb antenna) 1 x RX coil (with mounting for either copper ring or pcb antenna) 2 x Copper Ring OR PCB Antenna OPTIONAL – Oscillation Balanced Transformer OPTIONAL – 120VAC, 60Hz, True Sinewave Inverter (to run the MWO in 50Hz countries from a 12v deep cycle battery) NOTE: The PCB version costs less than the ring antenna version but the power cannot be turned up as much because it can cause too much corona that will break down the masking on the PCB antenna.

The True Design RediscoveredHistorical Context Georges Lakhovsky was captivated by high-voltage electrostatic phenomena, experimenting in the early 1900s with oscillating frequencies to explore effects on plants and soil conductivity. Using the Earth-ionosphere voltage gradient (~100 volts/meter), he grounded plants with copper rings, observing responses that fuelled his curiosity. This curiosity led to the Multiwave Oscillator, generating longitudinal waves via electrostatic propagation even though he may not have understood the nature of these waves. Numerous online resources detail Lakhovsky’s work for further study. His production machines diverged from his patent, misleading imitators who built inauthentic variations. The 2012 reverse-engineering report was a breakthrough, revealing the three imbalances: differing coil turns, unequal coil distances, and a grounded phase. The grounded phase, driving flux to Earth, set Lakhovsky’s design apart from balanced units with closed-loop emissions. These details, absent from the patent, were unknown until then, exposing prior replicas as incorrect. The Vril MWO brings this authentic design to researchers, with historical references for educational purposes only.

Grounding cable goes to back of pulse modulator phase 2 connection and into the ground on an outlet (dedicated ground rod is best). The Vril MWO is engineered for studying longitudinal waves and displacement currents, offering: High Voltage Output: Up to hundreds of thousands of volts, with an adjustable spark gap for transmitting longitudinal waves via electrostatic propagation between the antennas. Antenna Options: Copper Ring Antenna: Bent to Lakhovsky’s BV2 specs; coil mounting adapted for rings. Golden Ratio PCB Antenna: Designed by Eric Dollard; coil mounting adapted for PCBs. Coil Design: TX secondary: Different turns than RX secondary. Primary-to-secondary distance varies between TX and RX. Multiple layers of dielectric coating protect high-voltage windings. Grounded Phase: Splits emissions, part to the opposite antenna and part to ground, forcing flux downward. Stands: Two platforms and two upright poles, furniture-grade tubing for looks and stability. Oscillation Transformer: Optional, engineered by Dollard, for balanced mode experiments like the Cosmic Induction Generator. Power Requirements: 110V 60Hz; optional inverter for overseas use. Assembly: ~10 minutes with one person; walk-through tutorial YouTube video posted above. 1-Year Guarantee: Repair/replace within one year; no-refund policy, voided if opened without authorization. After 1 year, we can repair/replace very close to our actual cost.

Lakhovsky MWO with copper ring antenna

Lakhovsky MWO with PCB Antenna Research Applications The Vril MWO is ideal for experiments with longitudinal waves and displacement currents in different systems: Plant Studies: Explore grounded flux effects on growth or conductivity, inspired by Lakhovsky’s copper-ring tests, contributing to electroculture research. Water Research: Investigate resonance or structuring driven by downward flux, probing electrostatic interactions with aqueous systems. Harmonic Analysis: Study clashing harmonics from the three imbalances, using oscilloscopes or spectrum analyzers for philosophical or recreational insights. Electrostatic Exploration: Experiment with electrostatic propagation, leveraging the grounded phase to study wave behavior in gases, solids, or other media. Users must comply with all applicable laws and understand local regulations where the device is operated, ensuring responsible research practices.

Damaged plant before exposure to MWO – Jelmer U., Netherlands

Plant is thriving 24 days after exposure to MWO – Jelmer U., Netherlands Technical Specifications Output Voltage: Up to hundreds of thousands of volts. Waveform: Longitudinal waves with displacement current, via electrostatic propagation, driven by three imbalances, forcing flux to ground. Frequency Range: Adjustable via spark gap and antenna. Antenna: Copper rings (BV2) or Golden Ratio PCB, with adapted coil mounting. Materials: Coils with multiple layers of dielectric coating; stands from furniture-grade tubing. Power: 110V 60Hz; optional inverter for overseas use. Why Choose the Vril MWO? Unmatched Authenticity: One of two true MWOs, validated by the 2012 report. Rich Genealogy: Rooted in Bob Beck’s popularization, George Van Tassel’s Integratron inspiration, Peter Lindemann and Eric Dollard’s speculative Borderlands studies, and Paul Babcock’s homemade MWO. Lindemann’s input and Dollard’s design (including PCB antenna and Integratron work) were key, with Beck’s past funding of Dollard adding to this unique lineage. Research Focus: A tool for exploration, not guaranteed results. Made by A & P Electronic Media: Crafted in Spokane, Washington, under Vril. This MWO’s lineage, tied to Beck, Van Tassel, Lindemann, Dollard and Babcock, establishes it as the most authentic continuation of Lakhovsky’s principles, tracing back to when few understood the MWO.