The Universal Sphere-Vortex Principle | Gabriel Kelemen
Gabriel Kelemen, artist and researcher at West University of Timișoara, Romania, has spent over three decades studying the geometry of liquids and stationary waves, developing an interdisciplinary theory that bridges cymatics, fluid dynamics, and biological morphogenesis.
"The visualization of sound is one of the ancestral human dreams. Surprising the image of the aural ephemeral has been interesting scientific environments to this day. Almost everything in the universe is in a vibration state. Clarifying the hierarchy, the origin and co-substantiality of form with the natural language algorithm, grafted on phenomenal synergies, inextricably situates form as a result of stationary wave interference in conjunction with symbolic language-induced inferences."
When acoustic waves pass through liquids, they create stationary wave interference that reveals morphodynamic patterns. Nearly everything in the universe vibrates. This vibration explains why the cosmos expresses order through spheres, which serve as fundamental building blocks carrying disk or spiral adjacencies driven by movement. The sphere-vortex pair working together unifies morphological diversity across all scales. The same organizing principles repeat from galactic stellar matter distributing concentrically through planetary orbits down to atomic orbitals at the quantum level. The Mendeleev Table organizes chemical elements as spherical stationary quantic systems ordered from simple to complex. Spirals mediate between sphere and chaos by providing transitional states. Flow occurs in three progressive stages: laminar or rectilinear, sinuous or meander, and finally vortex. Meander rheology appears as an intermediate stage bridging ordered and chaotic states.
Kelemen conducted three decades of fluid experiments documenting how acoustic stimulation creates standing waves. These waves involve both laminar and turbulent cycloid currents that generate left and right rotating vortexes. Periodic oscillations with antinodes and nodes develop on the vertical axis, generating diverse cyclic currents while asymmetric chaotic turbulences appear simultaneously. In rhythmic harmonious states, standing waves show polygonal symmetry. Triangles, squares, pentagons, and hexagons emerge from antinodes, nodes, centripetal forces, and centrifugal circular movements working together. The experiments explore four major directions: volatile liquids with reduced viscosity like methanol and ethanol, pellicular standing waves at thin membrane levels, static waves in viscose liquids including mineral oil and sodium silicate, and static waves in powder made of spherical granules. When acoustic wave intensity exceeds a critical threshold, chaotic phenomena disrupt the standing wave's symmetry and the liquid atomizes into spherical fragments.
Meander diffusion provides fertile ground for exploring gyrification, the folding pattern seen in brain cortex development. When viscous and volatile phases interact, they create boundary instabilities that accelerate from straight to sinuous lines. This generates anastomosis and invagination until complete dissolution occurs through what Kelemen identified as an "echo of diffusion." The initially viscous fluid forms an envelope of proximity at its edge where partially dissolved material accumulates progressively. Once this phase is consumed, a reverse movement appears from periphery to center, bringing concentrated fluid back in a dissipative, sinuous oscillation. Concentric rings bring together physical phenomena of segregation, standing waves, and osmotic ring diffusion in Liesegang phenomena. Chemical reactions using potassium bichromate and silver nitrate show morphologic coincidence with the Golgi apparatus and endoplasmic reticulum found in cellular cytoplasm. This suggests biochemical reactions in cytoplasm follow principles fundamentally similar to Liesegang osmotic diffusion, where the cell exploits the same self-organizing principles that govern simple chemical systems.
Gabriel Kelemen, artist and researcher at West University of Timișoara, Romania, has spent over three decades studying the geometry of liquids and stationary waves, developing an interdisciplinary theory that bridges cymatics, fluid dynamics, and biological morphogenesis.
"The visualization of sound is one of the ancestral human dreams. Surprising the image of the aural ephemeral has been interesting scientific environments to this day. Almost everything in the universe is in a vibration state. Clarifying the hierarchy, the origin and co-substantiality of form with the natural language algorithm, grafted on phenomenal synergies, inextricably situates form as a result of stationary wave interference in conjunction with symbolic language-induced inferences."
When acoustic waves pass through liquids, they create stationary wave interference that reveals morphodynamic patterns. Nearly everything in the universe vibrates. This vibration explains why the cosmos expresses order through spheres, which serve as fundamental building blocks carrying disk or spiral adjacencies driven by movement. The sphere-vortex pair working together unifies morphological diversity across all scales. The same organizing principles repeat from galactic stellar matter distributing concentrically through planetary orbits down to atomic orbitals at the quantum level. The Mendeleev Table organizes chemical elements as spherical stationary quantic systems ordered from simple to complex. Spirals mediate between sphere and chaos by providing transitional states. Flow occurs in three progressive stages: laminar or rectilinear, sinuous or meander, and finally vortex. Meander rheology appears as an intermediate stage bridging ordered and chaotic states.
Kelemen conducted three decades of fluid experiments documenting how acoustic stimulation creates standing waves. These waves involve both laminar and turbulent cycloid currents that generate left and right rotating vortexes. Periodic oscillations with antinodes and nodes develop on the vertical axis, generating diverse cyclic currents while asymmetric chaotic turbulences appear simultaneously. In rhythmic harmonious states, standing waves show polygonal symmetry. Triangles, squares, pentagons, and hexagons emerge from antinodes, nodes, centripetal forces, and centrifugal circular movements working together. The experiments explore four major directions: volatile liquids with reduced viscosity like methanol and ethanol, pellicular standing waves at thin membrane levels, static waves in viscose liquids including mineral oil and sodium silicate, and static waves in powder made of spherical granules. When acoustic wave intensity exceeds a critical threshold, chaotic phenomena disrupt the standing wave's symmetry and the liquid atomizes into spherical fragments.
Meander diffusion provides fertile ground for exploring gyrification, the folding pattern seen in brain cortex development. When viscous and volatile phases interact, they create boundary instabilities that accelerate from straight to sinuous lines. This generates anastomosis and invagination until complete dissolution occurs through what Kelemen identified as an "echo of diffusion." The initially viscous fluid forms an envelope of proximity at its edge where partially dissolved material accumulates progressively. Once this phase is consumed, a reverse movement appears from periphery to center, bringing concentrated fluid back in a dissipative, sinuous oscillation. Concentric rings bring together physical phenomena of segregation, standing waves, and osmotic ring diffusion in Liesegang phenomena. Chemical reactions using potassium bichromate and silver nitrate show morphologic coincidence with the Golgi apparatus and endoplasmic reticulum found in cellular cytoplasm. This suggests biochemical reactions in cytoplasm follow principles fundamentally similar to Liesegang osmotic diffusion, where the cell exploits the same self-organizing principles that govern simple chemical systems.
❤4