Blogs about Multiwave Oscillator

It was several weeks before Christmas, when the days had already grown short but winter had not yet fully arrived. In a vast, ancient forest stood a tree that had once been the heart of the landscape. Its trunk was strong, its roots deep, its crown once so full that it received sunlight and rain with equal calm. Yet now, anyone who passed by could sense that something was wrong.

The tree was tired.

The world around it had become restless. Invisible radiation crossed the air like unseen lines of tension. Waste lay hidden beneath leaves and moss, remnants of human neglect. People passed without awareness, with hurried steps and loud voices, sometimes leaving scars in its bark. What had once been a place of stillness felt fragmented.

Slowly, almost imperceptibly, the tree’s life force began to ebb away.

The decline from within

Deep inside, its systems fell out of balance. The natural circulation of water and nutrients lost its rhythm. The sap flow, once steady and strong, became slow and irregular.

What is corona in a Multiwave Oscillator?

Some users of the Multiwave Oscillator (MWO) or Tesla coils report seeing a blue glow around the Lakhovsky antennas. This phenomenon is called corona discharge. It occurs when the voltage becomes so high that the air around the antennas ionizes. Although it looks impressive, it is often a sign of energy loss and not proof that the resonance field is stronger or working better.

Why corona is not a positive sign

Corona discharge can make an MWO appear spectacular, but technically speaking, it is actually a sign that the system is out of balance:

• Energy loss: voltage leaks into the air instead of contributing to the resonance field.

• Resonance disruption: ionization changes the capacity of the antenna and makes the field less stable.

• Uncontrolled field lines: instead of a harmonic distribution, random discharges occur.

• Material stress: antennas wear out faster due to ozone, heat, and oxidation.

Such a visible corona is therefore not a sign of a “better”

Meditech Europe's Multiwave Oscillator (MWO) is a powerful frequency product that works according to the classical principles of Nikola Tesla and Georges Lakhovsky. It converts 220 volts to high voltages of up to 120,000 volts using a Tesla coil and a mechanical spark bridge. These voltages generate a broad spectrum of frequencies that are transmitted through Lakhovsky antennas.The goal? To optimize the energetic environment based on natural frequency patterns. The MWO is intended for those who study energetics and cellular structures.

Temporary supply halt in 2021

In 2021, the MWO could not be delivered temporarily. The reason: regulations regarding frequency transmission. Meditech Europe therefore decided to recertify, and managed to make the MWO - in exactly the same design - available CE-certified again.

Fables about spectrum modification

Since then, incorrect stories have been circulating: that Meditech Europe would have modified or limited the MWO's frequency spectrum. These statements

In the serene realm of classical music shines a masterpiece that captivates not only the hearts of listeners but also touches the soul with profound resonance. Johann Sebastian Bach's St Matthew's Passion, a masterpiece infused with spiritual depth and emotional breadth, has inspired and moved people worldwide for centuries. In this comprehensive exploration, we will unravel the astounding influence of this composition, from Bach's own legacy to the modern era, where his musical heritage remains vibrant.

Johann Sebastian Bach

Johann Sebastian Bach, born in 1685 in Eisenach, Germany, was a visionary composer who created timeless masterpieces that pushed the boundaries of musical expression. His musical journey began in a time of great change in Europe, and his work embodied the perfect synthesis of tradition and innovation. In addition to St Matthew's Passion, Bach's oeuvre includes a wealth of other compositions that have stood the test of time and are still world-renowned. Some of his

The Multiwave Oscillator (MWO) with Lakhovsky antennas generates a broad spectrum of frequencies. This raises questions about safety and its influence on biological systems and cellular health. The MWO operates with both long and short waves, each with unique properties that naturally resonate with cellular structures.

The Multiwave Oscillator and Cellular Health

Cells communicate and function through subtle bioelectrical processes. Electromagnetic frequencies can influence these processes, but only if they fall within the natural frequency range of cellular structures. The MWO generates a broad spectrum of frequencies, allowing cells to absorb only those that match their natural resonance, without forced absorption or disruption.

Long and Short Waves in Relation to Biological Systems

Long Waves (Low Frequencies)

• These waves have a low frequency and a large wavelength.

• They penetrate deeper and support biological systems structurally.

• Comparable to the low frequencies of the Schumann resonance

It is an icy cold night in the vast wilderness of Yellowstone. The full moon casts a silver glow over the snowy landscape, while a lone wolf, known as Skar, moves silently. His golden eyes scan the horizon, searching for any sign of life. But he does not rely solely on his sight. No, deep in his core, he senses something most creatures will never experience: the language of vibrations.

An Invisible Sense

Wolves are known for their sharp sense of smell and excellent hearing, but few people know that these hunters are also sensitive to vibrations. As Skar prowls through the frozen wilderness, he presses his paws firmly into the ground. He feels the subtle rhythm of the earth beneath him, like a secret message only the initiated can understand. In the distance, a herd of deer moves slowly, their hooves sending faint vibrations through the ground. Skar perks up his ears, but he hears nothing. Yet he knows: beyond that hill, a chance for survival awaits.

His heartbeat quickens, and his breath

Frequency and resonance play a bigger role in music, physics and technology than we often realize. From the breaking of a glass by sound vibrations to the way musical instruments amplify sound, frequencies and resonance have a powerful effect on the world around us. One of the pioneers who addressed this as well was Royal Raymond Rife. He developed sophisticated microscopes and experimented with specific frequencies to find out their influence on pathogens and microorganisms. In this blog, we take a closer look at his discoveries, such as the Mortal Oscillatory Rate (MOR), and how products based on his technologies are still being developed and produced by Meditech Europe today.

Who was Royal Raymond Rife

Royal Raymond Rife (1888-1971) was an American inventor with a keen interest in microbiology who devoted his life to research and experimentation, particularly in the field of microscopy and the effect of frequencies on microorganisms and pathogens. In the years around 1930, he developed

Eowyn, a majestic kingfisher with vibrant blue and orange feathers, sits silently on a branch above a rippling stream. Her sharp eyes are fixed on the water’s surface, but it is not just her vision that helps her in her quest for food. For Eowyn, everything is frequency – a symphony of signals and vibrations that shape her world.

Frequencies of Sound

Eowyn’s surroundings are alive with sounds. The gentle rustling of leaves, the melodic singing of other birds, and the constant murmur of the stream form a harmony that keeps her alert. For Eowyn, each sound is a unique frequency that tells her what is happening in her world. A slight change in pitch can signal an approaching danger, while a deep vibration informs her of a fish jumping in the water.

Eowyn perks up her ears and interprets every wave of sound. Even the smallest disturbance in the natural harmony can alert her and focus her attention on what truly matters: finding her next meal.

The Mystery of Light Frequencies

As the sun filters

The Multiwave Oscillator (MWO) is an innovative product recognized worldwide for its ability to generate a broad frequency spectrum, ranging from 10 Hz to an impressive 30 GHz. These capabilities often raise questions: how can a product like the MWO produce such a vast frequency range? In this blog, we explain this process step by step, delving into the scientific principles behind resonance, electromagnetic waves, and the unique technology of the MWO.

The Foundation: Resonance, Wavelengths, and the Speed of Light

The Multiwave Oscillator is based on the groundbreaking work of Georges Lakhovsky, who discovered that specific electromagnetic frequencies could support biological processes. The product uses multiple concentric, open rings of varying diameters. These rings function as broadband resonators, each with a specific primary resonance frequency determined by its size.

The primary resonance frequency of a ring is calculated using the following formula:

frequency (fₑₛₛ) = speed of light

The Multiwave Oscillator (MWO) is a frequency technology device that generates electromagnetic fields to support biological systems. Although there is no direct scientific evidence for the effects of the MWO on mitochondria, a chemical approach offers intriguing hypotheses about how the MWO’s energy field could influence these crucial organelles. Mitochondria are not only the powerhouses of the cell but also play a vital role in ion homeostasis, oxidative stress, and apoptosis.

What Makes Mitochondria Unique?

Mitochondria are distinguished by their double membrane structure and their ability to produce energy through oxidative phosphorylation (OXPHOS). In this process, protons (H+) are pumped across the inner membrane, driven by the electron transport chain (ETC). This proton gradient is used by ATP synthase to generate adenosine triphosphate (ATP). The mitochondrial membrane potential, an electrical voltage caused by this proton gradient, is essential for ATP production and mitochondrial