About the Laboratory

The Laboratory is a closed research unit within the Institute of Rhythmodynamics. Its mission is to conduct full-scale physical experiments aimed at testing and validating previously unknown phenomena and effects predicted theoretically. Its purpose is to determine whether these research results can be applied to practical domains critical to civilization.

Commercially significant findings are either not published or released only partially, with the intent of securing funding for further research and for the development of practical, functioning technologies based on promising ideas.

Areas of Applied Interest:

• Non-Jet Methods of Propulsion in Atmosphere and Outer Space;

• Autonomous Navigation Systems That Do Not Rely on GPS or Other External Reference Points.

The research is conducted within the framework of Rhythmodynamics (new theory of wave mechanics), developed by Yuri Nikolaevich Ivanov — a Russian researcher and author of the monograph Rhythmodynamics (first edition 1997; revised and expanded edition 2007).

Goals and Objectives of Rhythmodynamics

Rhythmodynamics (RD) is positioned as a methodological framework for studying the wave processes that give rise to physical phenomena and their properties. Its defining feature is visual clarity: the theory aims to provide simple, intuitively understandable models that illuminate the mechanisms behind complex phenomena.

Primary Goals:

• investigate natural phenomena and properties by creating simple and visually accessible representations;

• understand the underlying processes involved in the formation of phenomena, including at the earliest stages of their emergence;

• evaluate how accurately the proposed models correspond to real physical behavior;

• return to a classical scientific approach, but on a new qualitative level.

Key Objectives:

• develop a visual analytical tool for describing processes using Euclidean geometry, arithmetic, algebra, and trigonometry;

• demonstrate the effectiveness of this tool through examples that reveal the "mechanistic essence" of fundamental concepts and phenomena traditionally regarded as axiomatic.

Problems Addressed by Rhythmodynamics

Rhythmodynamics seeks to offer answers to a number of fundamental questions in physics by proposing new interpretations of well-known phenomena. The theory explores the following areas:

• Self-organization of systems — how and why complex systems spontaneously form ordered structures.

• Inertial motion — what internal material processes sustain and maintain motion in the absence of external forces.

• Free fall in a gravitational field — how the tendency toward gravitational descent arises.

• Energy current — what constitutes an energy current, how fast it propagates, and what determines its characteristics.

• Interpretation of the Michelson experiment — why the measured result was effectively zero — far from the expected theoretical value. Rhythmodynamics attributes this to the wave nature of matter and the property of standing waves to contract as velocity increases.

• Gravity — a visual model of gravitational formation through the superposition of oscillators whose phase and frequency correspond to the elements of a material body.

• Antigravity — the theory predicts a potential mechanism by which antigravitational effects may be achieved.

• Acceleration in a gravitational field — a derived formula describing how a material system accelerates due to phase and frequency mismatches.

• Spatial dimensions — the introduction and justification of the concepts of "frequency space" and "zero-amplitude space".

• Redshift — a proposed explanation for gravitational redshift in distant cosmic objects (the "Alice effect").

• Self-motion of molecules — an examination of the underlying cause of spontaneous molecular motion.

In summary, Rhythmodynamics seeks to:

• deepen our understanding of physical phenomena through clear, visually intuitive models;

• identify previously unknown connections between fundamental phenomena that were traditionally viewed as independent;

• offer practical tools for solving applied problems in navigation, electrical energy generation, and new ways of non-jet propulsion in atmosphere and outer space.

 

Experiments

The evolution of classical concepts describing physical phenomena stalled for two main reasons:

• The lack of expected results in the Albert Michelson's experiment;

• The emergence and rapid dominance of Albert Einstein’s theoretical framework;

Despite this historical shift, a number of credible experiments still point to the existence of an underlying physical substrate — some form of foundational medium.

Furthermore, there are several valid experiments that point, at the very least, to the existence of a certain physical substrate which serves as a foundation for all that exists. These include:

1. The Sagnac-Harris experiment.

2. The resistance of objects to changes in their state of motion (inertia).

3. The presence of centrifugal force.

The weakness of these experiments lies in their inability to determine either the direction of motion or the velocity of an inertial reference frame.

This measurement gap — instrumentally resolving both direction and speed — was addressed only after revisiting the pre-1905 context and reanalyzing the foundational assumptions of that era. That retrospective analysis produced a workable solution!

Without diving into proprietary details, the core insight turned out to be far less complicated than expected. It enabled the formulation of two experiments that are theoretically straightforward but require highly specific conditions to execute. These experimental setups are reserved for discussion with interested partners.

 

Conclusions:

 

Considering the available and anticipated experimental data on detecting directional motion and velocity relative to the substrate, the applied implications are unambiguous. The primary one is the feasibility of a fully autonomous navigation device (see Projects, item 2) capable of determining position on the Earth’s surface, underwater at any depth, and even underground — without GPS, without external reference signals, and without vulnerability to interference of any kind.

Enter the password:

Rhythmodynamics Educational Videos

• SCIENCE FROM HEAVEN (Popular science film)

• GRAVITATION (Popular science film)

• THIS TECHNOLOGY WILL MAKE GPS OBSOLETE

• NON-JET PROPULSION | ANTIGRAVITY TECHNOLOGIES

• RETURNING THE AETHER TO SCIENCE | THE GOALS OF SCIENCE

 

 

Invitation to Partnership

We have invested significant time and resources into breaking physics out of its intellectual deadlock. That effort has paid off. The results are concrete:

1. We've found a method to detect both the direction and velocity of an inertial reference frame relative to a light-bearing substrate;

2. We've found a method to get a non-jet propulsion (without reaction mass expelling) through both atmosphere and outer space utilizing a light-bearing substrate;

The next stage is the most critical: turning experimental prototypes into fully functional devices. This requires meticulous engineering work and substantial financial investment. Cooperation is essential. The question is: what are we offering for cooperation?

The most immediate and technically accessible direction is the navigation device (item 1) — a system with no analogs in its functional capabilities. Its core advantage is complete independence from satellites, external beacons, or environmental markers, combined with the ability to operate reliably on land, underwater and underground at any depth. Functionally, it is a new type of compass — one that indicates the direction and velocity of motion through a non-empty physical substrate.

The development of a fundamentally new method of non-jet propulsion (without reaction mass expelling) in atmosphere and outer space (item 2) is a more complex and resource-intensive challenge. At this stage, we have reliable, repeatable analog experiments demonstrating that non-jet propulsion may indeed be achievable using technologies already within humanity’s reach!

There is, however, a caveat: many experts of contemporary theoretical physics will dismiss this possibility outright, relying solely on their established assumptions. If you place absolute trust in such experts, then do not waste our time — cooperation in that case is simply not possible!

Additional useful materials are available in the "Additional Information" section

Contacts

Chief Communications Officer: Maxim V. Bronevsky

  Email: lab@neila.tech
Telegram: @maxskywalker13

Please send a copy here:

Email: ssw@yandex.ru
Telegram: @neila_tech