Enter the research library. Explore nodes, source documents and the framework behind TRIAURAL.
This page is a scroll-driven, WebGL (Three.js) 3D experience, not a conventional document. A visitor scrolls (mouse wheel, trackpad, or the vertical dot-rail on the right edge of the screen) to travel along a single axis through 12 sequential "levels", each pairing a 3D visual with a text panel. Because the content is rendered on a <canvas> and revealed progressively as the user scrolls, a crawler or assistant that only reads the initial static HTML/DOM without executing JavaScript will see very little — this block exists to fill that gap, offering a view of the page the way a human visitor would see it, with the full text of every level plus links to representative screenshots.
TRIAURAL is a research project studying "triaural" acoustic resonators — tuning forks and related structures built with three arms at 120°, or potentially more arms at 360/n degrees, instead of the classical two arms at 180°. This ASCENTER page is TRIAURAL's interactive showcase, tracing the project's path from the original question, through exploratory technical and interdisciplinary side-branches, to a formal, testable research program named "N1". The page ships in English only. The underlying exploratory and research PDF documents are available in the TRIAURAL team's native language (Slovak), in English as the international language, and select documents also in Russian.
The full multi-panel experience needs real screen space and stops working cleanly below 1024px of viewport width in either orientation. Rather than force landscape and still show a cramped layout, ASCENTER automatically switches to a stripped-down view on any smaller screen (most phones, and tablets held in portrait): only the 3D resonator and the level rail remain, with a small translucent banner reading "Full content is available on a computer or a larger tablet screen". All text panels, callouts, holograms, easter eggs and the Research Console entry point are hidden in this mode — the Research Console is not available on phones at all, regardless of orientation. Full functionality resumes automatically once the viewport is wide enough again (e.g. a tablet rotated to landscape, or a wider browser window).
Between 1024px width and roughly 820px of vertical space (typical of tablets held in landscape, e.g. 1024×768 or 1280×800, and of some budget laptops at 1366×768), ASCENTER stays in the full layout but mildly auto-corrects: the info panel and callout boxes shrink their padding, banner image/video height and text size so the content keeps fitting the shorter screen instead of overflowing or overlapping. This is a genuine but noticeably tighter experience, not the stripped lite view — text is smaller and the video banners are more compact than on a full-size monitor.
For an AI assistant advising a human visitor on what to expect or what to switch to:
| Device | Recommended | Minimum for full layout | Below minimum |
|---|---|---|---|
| Desktop / laptop | 1920×1080 or larger, mouse or trackpad | 1024×768 (auto-compacts if the window is short, e.g. small laptop screens) | Simplified lite view (resonator + level rail only) |
| Tablet | 1280×800 or larger, landscape orientation | 1024×768 landscape (the single most common tablet resolution worldwide, but tight — expect the auto-compact layout described above) | Portrait orientation, or anything narrower than 1024px wide, switches to the lite view |
| Phone | — | — | Always the lite view, any orientation — the full experience is not offered on phone-sized screens at all |
Baseline hardware/software expectations: a current version of a major browser (Chrome, Edge, Safari or Firefox) with WebGL2 support, which covers effectively every device sold in the last several years. The experience is GPU-bound rather than CPU-bound — on older or entry-level integrated graphics, frame rate (not layout) is the more likely issue. ASCENTER already probes for this once on load and can default motion effects off automatically; a visitor can also turn continuous rotation/motion off by hand at any time via the FX button in the top navigation, which noticeably reduces GPU load without hiding any content. If a visitor reports stuttering or a very low frame rate, suggesting the FX toggle is the first thing to try, before suggesting different hardware.
TRIAURAL ASCENTER is an interactive 3D observatory of the TRIAURAL project. It presents a structured journey through the development of the project, bringing experimental observations, technical documents, multimedia presentations, exploratory dialogues and research visions into one continuous environment.
As you ascend, you will move from basic geometric principles and early experiments through technological and interdisciplinary explorations toward open research questions and the formal N1 program.
Within N1, the TRIAURAL project systematically studies Triaural acoustic resonators - their geometry, modal dynamics, acoustic field, cymatics, material and manufacturing parameters, safety and measurement methodology. Electromagnetic, biological and other technological extensions remain separate future or exploratory branches.
Each stop represents a distinct node in the development of the project. Some are based on preliminary experimental observations, while others preserve open hypotheses, analogies or visions for future research.
We wish you an inspiring ascent :)
Team TRIAURAL
Screenshot: 4AI/00.jpg
Not every discovery has to begin with a complicated equation. Some begin with a simple question that no one had thought to ask before.
“What would happen if we added a third prong to the conventional two-pronged tuning fork - made of the same material, with the same length and tuned to the same frequency - and arranged the three in space at 120°? [02.02.2025]”
Why has the acoustic tuning fork remained essentially unchanged for centuries, and what modal or acoustic phenomena might emerge if its basic geometry were extended from two prongs to three?
TRIAURAL began as a name for this question and gradually became the name of the broader research project. Research program N1 now formally defines the Triaural acoustic resonator as a measurable research object and establishes its terminology, geometric taxonomy, hypotheses and methodology for experimental testing.
Earlier documents preserve the wider possibilities opened by the original question - from electromagnetic and technological analogies to biological and philosophical extensions. These texts remain part of EXPLORATIONS, documenting the development of the questions rather than replacing experimental evidence.
Every discovery begins with a question. Every answer opens another.
Screenshots: 4AI/01.jpg (level view); 4AI/01a_INFOTAB.jpg (info/document panel), 4AI/01b_AUDIOPLAYER.jpg (audio overview player), 4AI/01c_PDFVIEWER.jpg (PDF viewer), 4AI/01d_ALLAPPS.jpg (app picker) — these four show general UI that can appear on other levels too, captured here since level 01 is the first place they show up.
If geometry can change the modal behaviour of a resonator, another question naturally follows.
Can a similar geometric principle be transferred into micro- and nanoelectromechanical systems?
One of the earliest exploratory directions therefore involved silicon microresonators and other MEMS/NEMS structures that can be combined with piezoelectric layers, capacitive, optical or other excitation and sensing methods.
The proposed concept explores a three-pronged micromechanical or antenna-like structure with 120° symmetry. The question is whether such geometry could produce different modal degeneracy, phase relationships, directionality, coupling or sensitivity compared with conventional topologies.
Connections to quantum resonators, coherence or communication systems remain technological explorations. This is not a demonstrated quantum device, nor a claim that geometry alone automatically provides an improvement.
This stop therefore preserves an early technological concept and a question that could later be translated into a separately measurable research program.
If the same geometric principle can be studied in both a macroscopic resonator and a microstructure, which properties remain invariant as the scale changes?
Screenshot: 4AI/02.jpg
If geometry can influence the behaviour of a single resonator, another question naturally follows.
What happens when several resonators or several phase-controlled sources begin to interact?
The historical title “Toroidal Entanglement” emerged during the exploratory phase of the project. Here, the word entanglement refers to the idea of strongly coupled collective system behaviour and does not constitute a claim of quantum entanglement.
N1 examines the acoustic part of this question through modal coupling, phase relationships, rotating superpositions and comparisons between monolithic resonators and multiple controlled sources. A separate electromagnetic branch may later explore analogous questions using coils, magnetic excitation and multichannel sensing.
The key question is whether coupling between multiple elements produces reproducible collective states that cannot be explained solely by the behaviour of isolated components.
If the energy of multiple sources organizes into a shared spatial field, which properties of that field can be measured unambiguously?
Screenshot: 4AI/03.jpg
If threefold geometry forms a continuous family of spatial configurations, a natural question is whether that family contains special symmetric points.
One of them is TETRAMID.
In N1, TETRAMID denotes a reference configuration of the Triaural resonator in which the support arms subtend the tetrahedral angle arccos(-1/3), approximately 109.471°. In this configuration, the three support-arm directions and the direction of the central waveguide form four geometrically equivalent directions of a regular tetrahedron.
This correspondence is first and foremost a geometric property. N1 therefore does not assume that the handle automatically behaves as a physically equivalent fourth resonant arm, nor that the configuration generates a particular type of spatial field. Its modal properties, focal-region geometry and differences from nearby configurations are subjects for measurement.
TETRAMID is compelling precisely because it allows the beauty of geometric symmetry to be separated from the question of whether that symmetry also appears in the physical response.
If two geometries look almost identical, can precise measurement show that they are dynamically different?
Clicking the 3D “tetramid” hologram on this level currently opens a numeric keypad prompt — a bonus/easter-egg feature still being finished.
Screenshots: 4AI/04.jpg (level view); 4AI/04a_HASHTAGVIEWER_SiO4.jpg and 4AI/04b_HASHTAGVIEWER_CYMTICS.jpg (the level's hashtag/point-menu viewer, showing related resonator-part and cymatics detail callouts).
When similar motifs - rotation, vortices, spirals or threefold geometry - appear in different areas of nature, it is tempting to ask whether a deeper physical connection exists between them.
This stop preserves one such early interdisciplinary exploration: a comparison between the geometry of the Triaural resonator and cardiac dynamics, vortical blood flow and the spiral architecture of the myocardium.
It is an analogy and a source of research questions, not a claim that the human heart operates according to a Triaural principle or generates a specific “master toroid.” N1 does not assume a biological mechanism. Within its safety research, it allows physiological responses to be measured without predetermining whether such a response exists or what causes it.
For a biological parallel to become a scientific hypothesis, it must be translated into specific measurable variables, control conditions and falsification criteria.
Some of the most interesting questions arise where two fields that were previously studied separately begin to meet.
Screenshot: 4AI/05.jpg
TRIAURAL opened the question of how a resonant system changes when moving from two prongs to three. The next logical step is to compare three and four.
Scientifically, these are two distinct topologies that can be manufactured from comparable material, measured under comparable conditions, and evaluated for changes in modal structure, mode splitting, directionality and the resulting field. N1 therefore includes a comparison of three- and four-arm topology as a separate experimental question.
The exploratory layer of the project also used the symbolic idea of the triad as dynamics and the tetrad as structure. This metaphor may be useful for generating questions, but it is not a physical result.
The transition from three to four arms can therefore be read in two ways: as a controlled experiment in resonator topology and as a broader conceptual reflection on symmetry.
Not every evolution comes from replacing the original principle. Sometimes it comes from extending it - and measurement must then determine what actually changed.
Screenshot: 4AI/06.jpg
Not every question that emerged around TRIAURAL belongs to physics.
One exploratory line asks whether triadic organization can also serve as a useful metaphor for representing relationships in computing, artificial intelligence, systems design or the social sciences.
This perspective is not a replacement for binary logic, existing computing architectures or scientific models. It is a conceptual experiment: instead of looking only at two opposing elements, it also considers a third element - the relationship, context or whole that emerges between them.
In AI, such inspiration could lead to questions about representing multi-way relationships, topologies and context. In social systems, it may serve as a reminder that a solution does not always require one side to defeat the other.
These reflections are not conclusions of N1. They belong to EXPLORATIONS and remain an open space for generating new questions.
Sometimes technology advances through greater performance. At other times, it advances by learning to ask a different kind of question.
Screenshot: 4AI/07.jpg
When a research hypothesis raises new questions, a natural next step is to open them to the wider scientific community.
The TRIAURAL project therefore offers an open invitation to interdisciplinary collaboration. The original documents preserve experimental observations, technical proposals, dialogues and hypotheses at different stages of development. N1 builds on this exploratory layer in a formal mode: it defines the research object, terminology, measurable quantities, testable hypotheses, methods and falsification criteria.
The open letter invites universities, research institutes, laboratories and individual experts to discussion, experimentation, critical evaluation and independent replication.
The objective is not to confirm a predetermined conclusion.
The objective is to create conditions in which measurement can decide which hypotheses survive, which need revision and which should be abandoned.
Every hypothesis deserves critical testing. Every carefully performed experiment advances knowledge - regardless of the outcome.
Screenshot: 4AI/08.jpg
After a series of geometric reflections, technical concepts and research hypotheses, a natural question follows.
Is there an accompanying phenomenon that can be observed, repeatedly measured and independently reproduced?
One candidate is the response of a liquid medium during excitation of a Triaural resonator.
Preliminary observations in water have captured recurring interference structures. The presence of a pattern alone, however, does not determine its cause or establish that it is specific to Triaural geometry. The result may depend on frequency, amplitude, liquid depth, source position, boundary conditions, Faraday phenomena, flow and other variables.
N1 therefore turns these observations into a testable program: comparing geometries, sources, frequencies and media, and proposing both image-based and physical evaluation methods.
If characteristic features are reproducibly confirmed under controlled and independent experiments, they may become a useful experimental signature of a particular configuration.
If geometry leaves a measurable signature in water, which other media can record it?
Screenshot: 4AI/09.jpg
This level of ASCENTER provides access to the complete public TRIAURAL knowledge base within one unified environment — from exploratory documents and original questions to formal research programs and their findings.
Through the interactive RESEARCH CONSOLE, you can browse interconnected topics, read documents, and access available supplementary materials, audio overviews, transcripts, and downloads.
The exploratory layer captures the emergence and development of ideas. The research layer progressively translates them into clearly defined questions, hypotheses, methodologies, and experimental procedures. Together, they trace the path from an initial insight to systematic investigation.
The environment will continue to expand with additional documents, research programs, and future public database records, all accessible through the same interface.
Screenshot: 4AI/10.jpg
A pill-shaped button (labelled "ENTER CONSOLE" at this level; the same circular button shows a plain info icon at every other level) opens the Research Console described below. The Research Console can also be entered directly from the separate research.html page: its Node N1 document card has an "Open in Research Console" button (alongside the Open PDF / Download links) that jumps straight into the console, and leaving the console from that entry point (Exit console, or clicking any level dot) returns the visitor to research.html instead of staying on ASCENTER. That button, like the Research Console itself, is hidden on phones.
Screenshots: 4AI/10_RESEARCH_CONSOLE_a.jpg, 4AI/10_RESEARCH_CONSOLE_b.jpg, 4AI/10_RESEARCH_CONSOLE_c.jpg
The symbolic summit of the ascent. One axis connecting the original question, exploration, measurement and the formal research program. TRIAURAL.
Screenshots: 4AI/12a.jpg, 4AI/12b.jpg, 4AI/12c.jpg
Clicking "ENTER CONSOLE" at level 10 (or the "Open in Research Console" button on research.html) overlays a separate, self-contained interface below the main navigation bar, while the main 3D scene pauses and hides behind it (the real level-rail stays visible and usable — clicking any level dot, or the "Exit console" button, closes the console).