Fluorescent hand-painted wooden tongue depressors fixed with velcro to a matrix of variable-speed computer fans illuminated by newly developed custom 5"x3" UV blacklight LED panels, allowing geometric patterns to appear through rapid rotation and dalit interiors.

Genesis is the first piece I created with my modified blacklight LED panels. After three earlier attempts over the years were literally washed out by visible light and motion blur, I decided to make one more shot at it.

I was absolutely ecstatic when experiencing the results for the first time. My blacklight reactive motion sculptures now glow at magnitudes brighter than they did 20 years ago, with crisp, bright, luminous geometric patterns and brilliant vivid colors! My blacklight works no longer depend on darkness or shadow boxes to be seen. Genesis marks the moment that limitation fell away. Genesis was completed a bit past midnight on Thursday, October 31st, 2024. Just in time for Halloween.

Another nice feature with works like Genesis is the individual blades are attached with Velcro, so the composition isn't fixed; it can be rearranged.

Custom made rotating variable speed 4 point laser plate with half mirror ball fixed to the bottom. Multi-mode light cannon casts a beam of light upon the rotating mirror ball from directly underneath. Mirror ball casts volumetric beams of multi-colored light filling up the space below with the fanned out (persistence of vision) 360 degree rays emitted by the rapidly rotating laser effect spanning the horizontal space above it.

Installed at Luna Nightclub, Appleton, WI. 2013-2015

UV blacklight kinetic wall tapestry, fluorescent hand-painted  mirrored acrylic blades fixed to layered computer fans with vibration dampening and orbital stabilizing hook and loop [Velcro] adheisive connections.

I called these UV blacklight-reactive overlapping computer fan tapestries “Stargates,” with correlating years attached.

Stargate V1 was sold to MLB player Jeffrey Hammonds, who played for the Milwaukee Brewers and was on injured reserve at the time, just a few months before his release from the team.

It was placed in his lakefront condo in Milwaukee. The piece was commissioned by Jonathan “Johno” O’Hara Gallery in NYC. Johno, as all his friends called him, also purchased several of my pieces, including the other UV blacklight reactive overlapping computer tapestry, which I made at the same time as Stargate V2.

Jonathan was Alexander Calder’s top rep at the time, working with his mother, Ruth O’Hara, who briefly dated Steve McQueen. She told me about their relationship during a conversation at Jonathan’s wedding and recalled often riding on the back of McQueen’s motorcycles.

Jonathan’s new bride was a subletter of my girlfriend’s summer home, “Hamptons Art House.” All of my remaining sculptures from my Little Italy storefront gallery were displayed there.

Alexander “Sandy” Rower, Alexander Calder’s grandson, was a close friend of Jonathan’s. We went fishing together along Plum Gut off the coast of Long Island a few times. Sandy also regularly attended our annual 4th of July parties at the home in East Hampton.

Desktop Solar Flare, Millevolte Millevolte. 2026

Blacklight reactive hand-painted fan blade, rechargable desktop fan, animated LED flame array, discarded construction beacon, rusty tin can base with desert hardened sand.

The Desktop Solar Flare combines multiple independently functioning light and motion systems into a single, multilayered temporal composition. Rather than presenting motion on one visual plane, the sculpture produces simultaneous patterns that appear to separate spatially, pulse, disappear, re-form and move in different directions.

At its center is a rechargeable fan. A fluorescent geometric pattern is painted onto a single fan blade, while the center hub carries a separate dual fluorescent pattern. UV black light LED panels positioned in front of the sculpture excite the fluorescent paint. As the fan rotates, the painted geometry is temporally sampled by the illumination and the viewer's visual system, causing "persistence of vision" patterns physically located on the blade to appear detached from it and suspended or floating on a separate plane.

Behind the fan is a construction warning beacon containing a repurposed LED flame array. The array originated inside a tubular solar torch whose rechargeable battery had become depleted. The tubular assembly was opened at its soldered connections and flattened into a flat rectangular shaped LED array before being installed inside the construction beacon.

The animated flame array produces continuously changing and pulsing illumination behind the rotating fan. As the blades repeatedly pass between this light source and the observer, they interrupt and redistribute the light, producing a second visual structure: pulsating blade shadows and luminous rays. These can appear to rotate or travel in a direction different from the fluorescent geometry, despite originating from the same physical assembly.

The result is a complex interaction of fluorescent geometry, blade shadows, animated LED illumination, rotational occlusion and temporal modulation. At different operating speeds, the relationships change dramatically. Patterns expand and contract, pulse in repeating sequences, disappear and return, while apparently independent motions emerge on different perceptual planes.

What the observer experiences therefore does not physically exist at any single instant.

The composition is constructed through time. The eye and brain integrate a rapid sequence of illuminated, moving and obscured states into apparent forms and motions produced by the interaction of mechanical rotation, temporally changing illumination and human visual persistence.

Optomechanical / Temporal Effects

Persistence of vision · temporal sampling · apparent motion · phase interaction · rotational occlusion · shadow modulation · animated LED modulation · fluorescent excitation · perceptual plane separation · multilayered kinetic motion.

Solar Flare also demonstrates my tabletop modular approach to my kinetic sculptures. Independently created light and motion components can be recombined into a new optomechanical system whose perceptual behavior is substantially more complex than that of any individual component. Look for more variations to come.

*variable speed control tuning coming soon.

Modified high-powered UV blacklight LED panels, dicarded bird cage, 50lb test fishing line, VCR loading motor, variable speed control module with digital readout.

Top Anchor: Vaseline Lubricated Dampening Spring: ​At the highest structural point, a steel spring serves as a dynamic shock absorber and vasoline container.

Motor Anchor: Vasoline lubracting "electronic battery spring" connected to looping zip ties. Serves a dynamic shock absorber. continuously lubricates the motor connection, dampening micro-vibrations and eliminating friction wear at the primary pivot point.

​Shock Isolation: High-frequency motor chatter travels up the suspension and is absorbed by the spring coils, protecting the overhead and bottom connectoin point from fatigue.

​2. Suspension Line: Decoupled Power & Load
​Two distinct conduits drop down from the top spring, completely separating structural weight from electrical delivery:

​Mechanical Load: (Black 50 lb Braided Line): Carries 100% of the sculpture's physical weight.

​Electrical Delivery (Filament USB Wire): Ultra-thin, featherweight wire strands stripped from a specialized USB cable feed power to the motor. Their minimal mass reduces stiffness or cable drag, allowing the structure to move without mechanical resistance.

​3. Power Core: Point-Rendered Eccentric Motor
​The heart of the assembly is a direct-drive DC motor equipped with offset eccentric counterweights.

​Direct Kinetic Engine: As the motor spins, the off-center weights generate continuous, high-frequency rotational imbalance.

​Point-Rendered Anchor: Targeted 395nm UV light, the dark suspension lines and wing planes disappear completely day or night—leaving the motor housing as the single visible, glowing "power core" grounding the entire installation.

​Central Track Loop: A primary zip-tie loop anchored directly to the motor acts as a flexible rail.

​Tunable Hinges: Flexible zip ties attached to the wings wrap around this track, serving as durable hinge that can change the static positioning of the wings.

​Variable Geometric Tuning: The wing zip ties can be manually slid upward or inward along the track. Positioned inboard near the motor, the wings produce a rapid, high-frequency flutter; positioned outboard, they generate wide, sweeping wing strokes.

​5. Optical Payload: Dual-State Wing & Mandala Assembly: ​At the outer front extremity, 1/4" outer rear wood blades fastened to the sliding zip ties act as inertial momentum drivers.

​Exertial Flapping Motion: As the motor drives the track, the mass of the wood blades lags behind the vibration, flexing the zip ties back and forth to create an authentic downstroke/upstroke wing beat capable of generating up and down movement, waves, S curves, figure 8s, and cones as the varible speed increases.

​Dual-State Transparency: In daylight, the painted areas of the blades provide glass-like material transparency around the frontal geometric mandala. Under 395nm blacklight in total darkness, the wooden surfaces and black rigging vanish entirely, leaving only the glowing, feather-patterned wings and central mandala beating through mid-air with zero visible support.

Tuneable Kinetic Movements: Jitterbird's front fixed "geometric" rotation remains stable during the rearing wings movements at rotation speeds before and after the tuning the Jitterbird experiences slow wobbling at slow speeds. At the highest speeds it becomes extremely chaotic with extreme fatigue and undesired optics and the loss of "persistence of vision".

Conclusion: Multiple distinct modes of kinetic movements derived from a single object.

Modified high-powered UV blackight LED panels, twisted discarded copper wire stems aid in vibration control and carry power to the fans, leather shoe-string copper wrapping, UV fluorescent hand-painted wooden "tongue  depressor" blades and found "wiffle bat" sliced rings fixed with velcro to a small grouping of synchronized variable speed controlled micro computer fans, discarded desert and wood framework base with hardened desert sand surrounding the LED transformer and variable speed control module with digital readout. Side by side pair of overhead 5"x3" Millevolte modified high-intensity UV blacklight panels. 

Daylight Perception:

In daylight, these works reveal themselves at a level I hadn't perceived before or anticipated. They don't just sit in space. They dominate it. There's an almost instinctive effect, like when a colorful butterfly flutters across your path of vision.

No longer do my works need to emerge from darkness or shadow. These new kinetic light sculptures dominate daylight interiors, often becoming the brightest and most visually commanding objects in the room.

In daylight, an unexpected perceptual phenomenon occurs. The intense fluorescent colors, controlled motion, reflected light, and optical persistence create a radiance that seems almost atmospheric and amplified into something more profound, something otherworldly.

As the blades rotate, the structure vanishes. You don't see blades at all. Only the thin layer of luminous pigment slicing through the air. It becomes a pure, flat orbital plane. It's almost impossibly thin and flat, as thin as the pigment itself.

Emerging from the orbital flatness, the globes appear, bringing a sudden three dimensionality into play. Video and photography are fruitless attemps to document it, but and "cosmic" phenomenon can only be comprehended in person.

Cosmic Flower's open framework was also designed to allow the piece to be a modular companion or forground element that can be placed in front of wherever my immagination takes me. For my Plastered Pilot events it will be placed in front of my Firebox piece and will combine with it to generate the illusion that its emerging before a small field of flames. 

Table top light sculpture with glass marble matrix screen fixed to an open cigar box with rapidly rotating kinetic USB powered LED ring inside. 3.5" glass sphere fixed to a cholla branch with rusted tin base and hardened desert sand base placed in the foreground.

Discarded tablet screen, white diffuser panel, discarded battery depletsed solar torch, multi-mode LED string lights with app and remote with hardened paper towel and Elmers glue-water solution overlay, discarded with phone app and remote controlopen cigar box. [looks quite convincing on video but my web hosting package only allows photos].

6] Individual or synchronized variable high-speed four point diode rotating laser plates based on my UV blacklight fluorescent computer fans. Can be scaled up with numerous laser fans to create an arena sized wall tapestry with an assortment of color variations and sizes. Larger centrally fixed rotating white disks can be added for projection mapping. Not yet exhibited in a public setting.

Holographic-like Display:The first product focused on a fluorescent vertically fixed rotating panels that produced holographic-like imagery. The images generated faced the viewer directly head on regardless of where they were standing.

Working alongside with Test Rite International in Taipei, Taiwan, I traveled there three times staying the maximum visa allowed 30 days at a time as the projects progressed from conceptual to engineering, manufacturing, mass production silk screening subjects like these hand needle-painted mock-ups.

This Kinetic Sculpture was my most difficult to engineer piece serving as a centrally prominent fixture at my eponymous storefront gallery when it debuted on July 4, 1993, at 248 Elizabeth Street in Little Italy, NYC.

At the time I was the building's superintendent and convinced the building's owner to utilize the flag as an attraction to help advertise the vacant storefront that was currently up for rent. It soon became a permanent installation as I then took over the lease the very next day. (2 years later I moved my gallery to 234 Elizabeth, a newly restored storefront with brick walls, and wall to wall street side windows with vertical curtains.)

The neighborhood was highly contrastin and had a lot of vacant storefronts, wandering drifters, and an occasional "social club". I ended up making signs for a couple of them.

My gallery injected a vibrant, high-energy presence into the block, and the glowing, moving flag became a major neighborhood standout. The sculpture was an engineering and hand painted marvel that required nearly two years to design and build, using 25 tightly aligned vertical panels to create a fluid, holographic tapestry.

The flag was constructed out of 25 clear vertical acrylic panels mounted on their axis in a tight, parallel row.

Each of the 25 panels were attached to an aluminum frame with shaft and 25 high-end sleave bearings from at the top and bottom to accommodate each of the rotating clear acrylic panels. An i-beam was centrally fixed along the axis of each panel so they were as rigid as possible. Without the i-beams the Each panel would collide with each other and were belt driven via. pulley and a high-speed, high-quality, VCR loading motor and held in place by 2 silicone dampened yoke/clevises connect to the pulleys via a industrial steel iron grade metal shaft.

When turned on, the vertical blades spun rapidly on their individual axes generating transparent holographic-like imagery. When clear acrylic panels spin past the eye's flicker-fusion threshold, the physical plastic structure completely disappears. Because of its rotational orientation all 50 stars faced the viewer head on.

"The visual data of the American flag was not painted in solid blocks, but entirely applied using Millevolte's signature stippling effect. The entire sculpture featured over 200,000 individually hand-painted fluorescent dots.
The 50 stars together alone were meticulously rendered from over 20,000 hand-painted dots.

All 25 panels spun at slightly different speeds and where cut to slightly different widths to simulate a real textile waving in a staggered mechanical progression by slightly delaying the rotational timing from one column to the next, the persistent of visual trails created an undulating wave. Placed inside a large high-density wood and shock mounted aluminum frame.

The shimmering transparent 5' x 4' kinetic American Flag appeared to seamlessly ripple and float in mid-air. The illusion was so striking that HBO utilized clips of the sculpture for an entire season in an advertising campaign for NHL hockey games. To capture the effect, HBO arranged specialized transportation to move the kinetic sculpture to the rooftop of their midtown Manhattan skyscraper for the commercial shoot".

*I had much better photos but eventually lost all of them. These 2 hard copies and a still photo are all that is left. Notice the blue banner is striped. The blue color is not shown and painted on the other side to further enhance the waving effect. The red stripes appear as a solid painted surface as the camera blurred the micro pointillistic dots together.

Assembled from a discarded wooden veneer TV set, bowling trophy, VCR hubs, VCR loading motors and cassette player mechanisms with fluorescent hand-painted blades fixed to rapidly rotating surfaces.

Nitrovision was constructed in my downtown De Pere, WI. studio located above a nightclub called the Limelight I was inloved with designing, two stories above a bowling alley. The studio served as both a workspace where I could create devices for the nightclub below and a place to develop a portfolio for my eventual return to New York City and the opening of my storefront gallery on Elizabeth Street.

The views overlooking the Fox River below were magnificent, but the view inside was even better. A wide assortment of dozens of vintage four-pillar bowling trophies lay scattered across dusty cocktail tables where they had been stored away. To me, they were a virtual gold mine and provided aesthetically pleasing platforms to work with.

The trophy chosen for Nitrovision had a decorative wooden base with shimmering blue metallic pillars. It was positioned above a hollowed-out wooden-veneer television set I had found while traveling in my pickup truck.

To add some kinetic energy to the mix, a couple of friends and I brought the television out to a farm field. I had a crazy idea to have a little fun with it, so we brought along a generator and plugged the TV in.

It still functioned well enough, although only the red tones were visible on the screen. We waited for an annoying advertising commercial to appear and then, from a safe distance, proceeded to fire high-powered hunting rifles at it, blasting the screen with bullets.

We all experienced something most people probably never will. The resulting sparks and emission of gases were brief but satisfying.
And that was the beginning of Nitrovision.

Assembled from a discarded 1938 Philco upright radio cabinet, 3 synchronized clear acrylic rings fixed vertically to pulleys with a timing belt powered by an industrial blower motor with fluorescent hand-painted blades and rotating surfaces.

This is a scanned image from a historical photograph taken from my personal archives. It is one of a very few number of photos I have representing either of my two storefront galleries on Elizabeth St. in New York City.  My first storefront gallery located at 248 Elizabeth St. opened on July 4th 1993. My second storefront gallery located at 234 Elizabeth St. opened in the fall of 1994. This image shows the kinetic UV blacklight reactive installation that appeared in the right facing south bay window at 234. 

The arrangement was asembled with four 3" square "muffin" style fans. Each fan was placed diagonally [diamond orientation]. A long 1/16" steel wire rod was fixed to the ceiling and to the prefabricated hole located on the fan's housing allowing it to appear to be suspended in mid air. A second steel rod was attached a wooden platform display space adjacent to the window.  12 volt DC current ran through each rod providing power to the fans. Power was provided by a 12 volt Sears battery charger and variable speed was provided with a ceiling fan motor speed control tapped into the power from the wall then to the charger itself. The variable speed allowed me to tune the paterns to their most desired geomtrical representation. During night time operation the steel rods all but disapppeared. The resulting lumenous transparancies allowed elements in the gallery to pass through them. Unfortunatly I had closed my gallery earlier and the optical phenomenon described does not appear in this image. Illumination was provided by two Altmen 250 watt mercury vaper floor lamps that were placed on the wooden  bay window display platform.

Marble Matrix Microburst, The Analog Pixel and the Illuminated Microcosmos, Michael Millevolte. 2026

My Marble Matrix Microburst is a handcrafted analog optical sculpture that investigates the relationship between digital pixels, physical light sources, optical diffusion, and human visual perception. Contained within a modified jumbo cigar box, the sculpture translates the familiar principles of digital pixel matrices into a three-dimensional arrangement of physical materials and luminous optical phenomena.

The artwork is also a commentary on the increasingly pixelated visual environment of contemporary life. Digital screens organize images through matrices of individually controlled picture elements. My approach explores how similar visual structures can be generated through physical arrangements of glass marbles, controlled illumination, and optical distance.

Rather than reproducing digital imagery electronically at the viewing surface, I use an array of physical optical elements to transform light into distinct luminous points. The resulting experience connects the technological world of pixels with the natural optical behavior of transparent materials.

1.] The Matrix as a Visual Language:

The underlying concept originates from a simple observation: much of our contemporary visual experience is organized through matrices. Computer monitors, smartphones, digital photography, and electronic displays construct images through arrangements of discrete picture elements.

My interest lies in translating this organizational principle into physical space.

A.) Digital Pixels: Electronic displays generate images through precisely arranged picture elements whose brightness and color can be controlled.

B.) Analog Optical Pixels: My marble matrices employ individual glass spheres as optical elements that redirect, concentrate, and redistribute illumination into visible points and halos of light.

C.) Three-Dimensional Translation: Unlike the substantially planar arrangement of a conventional display, the sculpture separates its illumination sources from its marble matrix, creating a physical optical system with measurable depth.

D.) Perceptual Interpretation: The observer experiences the resulting points of light as a luminous composition rather than simply recognizing the individual mechanical components.

This relationship between electronic image construction and physical optical phenomena is central to the artwork.

The Marble Matrix Microburst is not merely a decorative arrangement of illuminated marbles. It is a physical commentary on the structure of the pixelated visual world.

2.] Construction and Optical Configuration:

The sculpture consists of a 5-inch by 7-inch glass marble screen matrix mounted to a modified jumbo cigar box approximately 10 inches in length. The box is positioned sideways, creating a compact tabletop optical installation.

A programmable USB-powered LED array is contained within the enclosure. Illumination modes, color combinations, and operating characteristics can be adjusted through a smartphone application and remote control.

The marble screen and individual LED sources are separated by an optical distance of approximately seven inches.

This separation is an intentional part of the composition rather than simply a consequence of the enclosure's dimensions.

A.) Marble Screen: A fixed matrix of glass spheres serves as the optical viewing surface.

B.) Illumination: Individually positioned LED sources generate the light entering the optical system.

C.) Optical Distance: Approximately seven inches separates the light-source array from the marble screen.

D.) Control System: USB-powered programmable illumination provides multiple operating modes and color configurations.

E.) Physical Enclosure: The modified cigar box houses the components while establishing the required optical geometry.

The interaction between these elements determines the perceived size, separation, intensity, and distribution of the luminous points.

3.] Micro-Points of Light and Perceptual Scale:

One of the sculpture's most remarkable characteristics is the apparent minuteness of its individual luminous points.

At the approximately seven-inch operating distance, the glass marble matrix generates brilliant points of sparkling light surrounded by delicate luminous halos.

To my eyes, some of these points appear approximately twice the perceived size of individual pixels on a smartphone screen.

I have spent considerable time studying microscopic organisms, particularly ciliates such as Stentor. Through those observations, I became familiar with the extraordinary visual complexity of the microscopic world.

I have observed individual Stentor organisms with the naked eye that appeared larger than some of the luminous points generated by this sculpture.

This comparison concerns apparent visual size rather than a direct microscopic measurement of the light points.

Nevertheless, it establishes an important relationship between the artwork and my longstanding interest in the microcosm.

Illumination makes the microcosm readable.

The sculpture transforms minute concentrations of light into distinct visual events. Their small apparent size does not prevent them from exhibiting brilliant color, recognizable separation, and complex optical halos.

The result resembles a miniature luminous universe contained within an ordinary cigar box.

4.] Optical Distance, Diffusion, and Pixel Separation:

The approximately seven-inch distance between the LED array and marble screen produces the visual characteristics I currently prefer.

Individual luminous points remain sufficiently separated to retain their apparent independence, while their surrounding halos contribute to the overall composition.

A.) Point Recognition: Individual points remain visually distinguishable rather than merging into a continuous field.

B.) Luminous Halos: Each point can exhibit a surrounding region of redistributed light, contributing to its apparent brilliance and spatial character.

C.) Color Distribution: The arrangement of LED sources and marble optics produces vivid luminous colors across the viewing surface.

D.) Spatial Separation: The distance between sources and optical elements influences the apparent distribution and overlap of individual points.

Increasing the separation to approximately ten or twelve inches is another possible configuration.

However, greater distance may increase the overlap of light distributions, causing neighboring points and colors to merge rather than remain individually recognizable.

The precise result depends on source geometry, beam divergence, marble dimensions, optical alignment, and the distribution of illumination.

My current seven-inch configuration represents an intentionally selected aesthetic balance between luminous intensity, point separation, and optical diffusion.

5.] Analog Pixels and the Possibility of Miniaturization:

The sculpture also raises an interesting engineering question: how small can an individually distinguishable analog optical pixel become?

Modern electronic displays demonstrate that extremely small luminous picture elements can remain visually useful when their brightness, spacing, and optical characteristics are appropriately controlled.

My marble matrix approaches the problem through a different physical arrangement.

Rather than placing electronic display pixels directly at the viewing surface, I use separate illumination sources and physical optical elements to generate the visible points.

A.) Optical Scaling: Smaller glass spheres or other miniature optical elements could potentially reduce the dimensions of the resulting luminous structures.

B.) Source Proximity: Adjusting the separation between light sources and optical elements could modify diffusion, brightness, and point separation.

C.) Fiber-Optic Illumination: Individual optical fibers could provide more localized light delivery and potentially improve control over neighboring luminous points.

D.) Optical Refinement: Additional adjustments to source geometry, alignment, aperture size, and material selection could provide finer control over the resulting optical patterns.

E.) Perceptual Resolution: The practical limit would depend not only on the physical dimensions of the components but also on the observer's ability to distinguish adjacent illuminated points.

These principles suggest that further miniaturization is physically plausible, although achieving a particular modern display pixel pitch would require additional engineering and dimensional verification.

The important distinction is that the artwork already demonstrates the generation of minute, individually recognizable luminous points through an analog optical arrangement.

Further development would investigate how far that principle can be refined.

6.] Why Cameras Cannot Adequately Reproduce the Experience:

Typical of many of my perceptual devices, the Marble Matrix Microburst is exceptionally difficult to represent accurately through conventional photography or video.

The difficulty arises from the relationship between the extremely small luminous points, their high apparent brightness, the surrounding optical halos, and the exposure characteristics of digital cameras.

When photographed, the individual sparkles frequently appear substantially larger and flatter than they do to the naked eye.

A.) Exposure Saturation: Bright points may exceed the camera sensor's available dynamic range, producing clipped highlights that obscure fine optical details.

B.) Optical Blooming: Lens characteristics, sensor behavior, and image processing can cause concentrated light sources to appear enlarged or surrounded by exaggerated halos.

C.) Focus and Resolution: Extremely small luminous features may occupy only a limited number of sensor pixels, making their apparent dimensions and separation difficult to reproduce accurately.

D.) Color Reproduction: Highly saturated LED colors may exceed the practical color-rendering capabilities of the camera and display system.

E.) Perceptual Differences: The direct human viewing experience involves optical and neurological characteristics that are not fully reproduced by a conventional image.

Reducing camera exposure can preserve some highlight detail, but it may simultaneously diminish the luminous atmosphere that makes the original sculpture visually compelling.

Consequently, photographs and videos serve as documentation rather than complete representations of the artwork.

The actual optical experience must be observed in person to appreciate its full perceptual character.

7.] The Microcosm and the Digital World:

The Marble Matrix Microburst brings together two subjects that have fascinated me for decades: microscopic observation and the technological construction of visual imagery.

Under a microscope, the natural world reveals extraordinary structures and relationships that ordinarily escape unaided human vision.

Digital technology approaches visual complexity through another route, constructing recognizable images from increasingly small individual picture elements.

My sculpture establishes an artistic relationship between these two worlds.

The glass marbles transform individual light sources into a field of minute luminous events. Their arrangement recalls the pixel matrices of electronic displays, while their sparkling appearance suggests microscopic structures or distant celestial objects.

The comparison is conceptual and perceptual rather than a claim that biological structures and electronic pixels operate through identical mechanisms.

What interests me is the shared importance of scale, organization, illumination, and visual recognition.

A point of light can become a recognizable element of a larger composition. Thousands of such elements can produce an image, a pattern, or an apparently continuous visual field.

The individual point remains physically small, yet its contribution to the overall experience can be substantial.

8.] Artistic Commentary Through Physical Optics:

The Marble Matrix Microburst belongs to my broader investigation into the relationship between analog materials and digitally familiar visual structures.

Throughout my career, I have explored how painting, geometry, mechanical motion, and illumination can generate visual experiences that resemble phenomena commonly associated with electronic imagery.

My optical matrices extend that investigation through physical arrangements of individual luminous elements.

The work asks the observer to reconsider the familiar pixel—not simply as an electronic component, but as a fundamental unit within a larger visual organization.

The distinction is important.

A digital display generates its image through electronically controlled picture elements. My sculpture uses a separate arrangement of light sources and glass optics to produce a related perceptual structure.

The resemblance provides the basis for the artistic commentary, while the differences in construction reveal alternative possibilities for creating luminous imagery.

9.] Closing Statement: A Universe Within a Cigar Box:

The Marble Matrix Microburst demonstrates how a modest collection of materials can produce an optical experience whose apparent complexity extends far beyond the physical simplicity of its components.

A modified cigar box, a programmable LED array, and a matrix of glass marbles become an instrument for investigating luminous scale, optical diffusion, spatial separation, and the relationship between analog and digital visual systems.

Its tiny points of light suggest both the microscopic and the cosmic.

The artwork reflects my belief that significant artistic discoveries do not necessarily require monumental dimensions or elaborate machinery. Sometimes the most intriguing visual phenomena emerge from relatively simple physical arrangements examined with sufficient curiosity and attention.

For me, the Marble Matrix Microburst represents more than an experiment in miniature illumination.

It is a commentary on the visual architecture of the pixelated world, expressed through the physical behavior of light.

Illumination makes the microcosm readable.

Michael Millevolte
Analog Perception Architect | Optomechanical Illusionist
optomillevolte.com

© 2026 Michael Millevolte. All Rights Reserved.

Original artwork, luminous geometric compositions, and associated artistic terminology are subject to applicable copyright and trademark protections. Proprietary optical inventions, mechanical systems, and functional applications may be subject to utility patent protection. All applicable rights reserved.

Discarded construction beacon with rapidly rotating vertical ring of LED lights inside, rusty sardine can base with hardened desert sand.

Discarded Samsung Galaxy View tablet screen, USB powered multi-mode LED string lights with phone app and remote control, discarded bed spring sprayed with copper enamel (provides some shock absorption against fall damage) and desert weathered wood block base. *When this tablet finally succumbed to delamination I almost cried. Having a sim card and mobile internet service was very convenient for life in a motorhome. Rather than toss it I created something I could enjoy for years to come.

Each bottle is meticulously crafted with two modified radio antennas to provide an even distribution inside generating as much light volume as possible. Individual bottles can be synced to music or via phone app or remote control. Create your own tabletop or back-bar-shelf light show for a spectacular effect. Each bottle comes fixed to a desert weathered wood frame base with hardened desert sand. A spectacular effect for parties, events or holiday celebrations. 

Magnetic and Air-Driven Laser Pendulum. Kinetic Luminous Calligraphy Through Spatial and Temporal Motion, Michael Millevolte. 2026

1.] Introduction: An Optomechanical Investigation of Motion, Light, and Space:

The Magnetic and Air-Driven Laser Pendulum is an optomechanical kinetic sculpture that transforms the physical movement of a suspended laser assembly into continuously changing luminous trajectories. Originating in Millevolte's Plastered Pilot investigations of 2013, the apparatus combines aerodynamic excitation, magnetic interaction, and projected laser illumination to generate evolving compositions of light and motion.

Unlike conventional laser projection systems employing motor-driven mirrors or electronically programmed scanning patterns, the Magnetic and Air-Driven Laser Pendulum derives its visual compositions from the physical movement of the light-emitting assembly itself.

Four laser diodes mounted to the suspended apparatus project beams into the surrounding environment. As the assembly moves, their trajectories produce changing geometric and calligraphic compositions across walls, ceilings, and other receiving surfaces.

The system accommodates both indoor and outdoor embodiments. Indoor configurations may employ mechanically generated airflow, while outdoor installations may utilize natural wind. In either configuration, individually positioned magnetic elements influence the suspended assembly's movement.

The resulting optical experience is governed by the interaction of airflow, magnetic forces, gravitational restoring forces, pendular motion, beam orientation, projection distance, and the spatial arrangement of receiving surfaces.

The fundamental artistic principle is the transformation of comparatively small mechanical movements into expansive luminous motion.

2.] Mechanical Suspension, Aerodynamic Excitation, and Magnetic Operating Principles:

The apparatus consists of a suspended laser assembly supported by a flexible tether. Electrical conductors supplying the laser diodes are arranged around the supporting tether without assuming the primary structural load.

The suspension permits the assembly to move through a range of pendular and orbital trajectories. Aerodynamic forces supply mechanical excitation, while individually positioned magnetic elements influence the direction, amplitude, and character of the resulting movement.

A.) Suspended Laser Assembly: A flexible supporting tether carries the weight of the apparatus while permitting angular displacement, oscillation, and orbital movement.

B.) Four Laser Diodes: Multiple light sources project distinct trajectories into the surrounding environment. Their individual orientations determine the angular relationships between the projected beams.

C.) Natural Wind — Outdoor Embodiments: Ambient airflow supplies aerodynamic forces that may initiate and sustain pendular movement. Changes in wind direction, velocity, and turbulence introduce naturally varying mechanical excitation.

D.) Forced Air — Indoor Embodiments: Fans or other controlled airflow sources provide adjustable aerodynamic excitation. Airflow direction, velocity, and distribution may be modified to investigate different oscillatory responses.

E.) Magnetic Interaction: Individually positioned magnetic elements influence the movement of the suspended assembly through attraction, repulsion, or combinations of both, depending upon the magnetic materials and polarity arrangements employed.

F.) Combined Aerodynamic and Magnetic Forces: Airflow supplies mechanical energy to the moving assembly, while magnetic interactions alter its potential-energy landscape and influence its resulting trajectories.

G.) Electrical and Structural Separation: The supporting tether carries the mechanical load, while electrical conductors supply the laser diodes. Their arrangement must preserve freedom of movement without excessive twisting or interference.

The apparatus is mechanically suspended rather than magnetically levitated. Magnetic interaction influences the motion but does not replace the supporting tether.

Stationary permanent magnets do not continuously supply the energy required to overcome mechanical damping. Sustained movement depends upon aerodynamic excitation or another external energy source.

3.] Individual Magnetic Placement and Spatial Arrangement:

The individual positioning of magnetic elements introduces a variable system for influencing the pendulum's mechanical behavior and its resulting projected optical trajectories.

Rather than relying upon a single predetermined oscillation, the sculpture permits experimentation with the spatial distribution of magnetic forces.

Each magnet represents an independently adjustable mechanical variable.

A.) Individual Magnet Position: Changing the location of a magnetic element alters the direction and magnitude of its influence upon the suspended assembly.

B.) Magnetic Polarity: The relative orientation of magnetic poles determines whether particular interactions are attractive or repulsive.

C.) Magnetic Spacing: The separation between magnetic elements and the moving assembly influences the strength and spatial distribution of the magnetic forces.

D.) Vertical Placement: Positioning magnets at different heights changes their relationship to the suspended assembly throughout its trajectory.

E.) Angular Arrangement: Asymmetrical magnetic placement can introduce directional preferences and alter the character of the resulting motion.

F.) Magnetic Field Strength: Different magnetic strengths may produce different responses, depending upon the mass, magnetic properties, and suspension characteristics of the moving assembly.

G.) Combined Magnetic Fields: The simultaneous influence of multiple magnets creates a composite force field that may produce trajectories substantially different from those generated by any individual magnet.

H.) Dynamic Adjustment: Repositioning individual magnets provides a method of experimentally modifying the motion without changing the underlying suspended laser assembly.

The resulting trajectories depend upon the combined magnetic force field, gravitational restoring forces, aerodynamic excitation, mechanical damping, and the initial motion of the pendulum.

Magnetic placement can influence acceleration, displacement, and trajectory. The resulting optical behavior is therefore adjustable through the spatial arrangement of the magnetic elements.

4.] Optical Velocity Through Spatial Arrangement:

The Magnetic and Air-Driven Laser Pendulum introduces a relationship between the physical velocity of a suspended light source and the apparent velocity of its projected luminous trajectories.

The mechanical movement of the laser assembly may be relatively small compared with the movement of the projected laser spot across a distant surface.

As the pendulum changes orientation, its projected beams sweep through space. The apparent speed of their intersection with receiving surfaces depends upon angular velocity, projection distance, and surface orientation.

A.) Angular Motion: The pendulum's changing orientation determines the direction and angular velocity of each projected laser beam.

B.) Projection Distance: Greater distances between the laser assembly and receiving surfaces can produce larger projected displacements for the same angular movement.

C.) Surface Orientation: Angled or irregular receiving surfaces modify the relationship between beam direction and the apparent trajectory of the illuminated point.

D.) Spatial Multiplication: Multiple laser diodes produce several related trajectories from the movement of a single suspended assembly.

E.) Variable Optical Velocity: The apparent velocity of projected light can change substantially across different receiving surfaces, even when the mechanical movement of the laser assembly remains comparatively consistent.

F.) Architectural Scale: Walls, ceilings, and other architectural surfaces provide opportunities for translating compact mechanical motion into large-scale luminous compositions.

For a simplified configuration involving a beam directed toward a perpendicular plane, projected displacement may be expressed as:

x = L tan θ

Where L represents projection distance and θ represents the beam's angular displacement relative to the plane's normal.

The corresponding projected velocity is:

dx/dt = L sec²θ · dθ/dt

This relationship demonstrates how projection distance and angular orientation influence the velocity of the illuminated point.

It also establishes a distinction between the physical motion of the apparatus and the apparent motion of its projected image.

The pendulum supplies the mechanical movement; spatial arrangement determines how that movement is translated into optical velocity.

5.] Multiple Laser Diodes and Compound Optical Trajectories:

The four laser diodes introduce an additional level of visual complexity.

Although all four sources participate in the motion of the suspended assembly, their individual beam orientations may differ.

Consequently, each diode can produce a distinct projected trajectory.

A.) Parallel Beam Configurations: Similarly oriented beams may produce related luminous movements across receiving surfaces.

B.) Divergent Beam Configurations: Differently angled beams may distribute luminous trajectories across separate architectural regions.

C.) Intersecting Trajectories: Projected paths may cross or overlap, producing compound visual compositions.

D.) Variable Projection Distances: Beams reaching surfaces at different distances may exhibit different apparent speeds and displacement ranges.

E.) Spatially Distributed Composition: Multiple receiving surfaces permit the sculpture to operate across a three-dimensional architectural environment rather than a single projection plane.

The resulting composition is generated through the relationship between the mechanical trajectory of the pendulum and the individual orientations of its laser diodes.

The sculpture therefore employs a single moving assembly to generate multiple related but visually distinct luminous trajectories.

6.] Laser Beam Interactions and Capture:

The Magnetic and Air-Driven Laser Pendulum is not restricted to projecting light onto conventional walls or ceilings.

Its optical behavior may be expanded through the introduction of receiving surfaces that intercept, transform, diffuse, reflect, or temporarily retain the moving laser illumination.

These configurations establish several distinct methods of beam interaction.

A.) Uninterrupted Projection — Luminous Calligraphy:

In its simplest configuration, the apparatus projects freely moving laser trajectories across surrounding walls, ceilings, or other designated receiving surfaces.

The moving points of illumination trace continuously changing paths, producing an experience resembling luminous handwriting or calligraphic drawing.

These compositions emerge directly from the movement of the suspended laser assembly.

No intermediate optical capture panels are required.

The resulting trajectories may include sweeping arcs, loops, overlapping curves, and irregular geometric formations.

The term luminous calligraphy describes the artistic appearance of these moving trajectories rather than implying that the beams necessarily leave persistent marks.

B.) Variable Beam Capture:

Additional optical effects may be introduced by positioning selected materials within the projected beam trajectories.

Receiving surfaces can be arranged at different distances, heights, and angles.

Their optical characteristics influence the resulting appearance of the intercepted light.

Types of Beam Capture Surfaces:

1.] Photoluminescent Panels: Materials capable of absorbing incident illumination and subsequently emitting visible light may produce temporary luminous traces. Appropriate excitation wavelengths and sufficient optical exposure are required to obtain the intended afterglow.

2.] Reflective Surfaces and Mirrors: Reflective materials redirect incident light and may introduce additional projected trajectories. Their orientation determines the direction of the reflected beam. Mirror configurations require particular attention to beam containment and eye safety.

3.] Optical Tapestries: Painted, textured, or otherwise optically treated artistic surfaces provide opportunities for combining the moving laser trajectories with established geometric compositions.

4.] Additional Experimental Surfaces: Alternative materials and optical treatments may be investigated for their capacity to modify the appearance, distribution, or persistence of incident laser illumination.

5.] Light-Diffusing Surfaces: Translucent, textured, or scattering materials disperse incident laser light, potentially producing softened luminous regions, expanded beam patterns, and spatially distributed optical effects.

These surface categories may be employed independently or combined within a single installation.

C.) Kinetic Beam Capture — Calder Meets Millevolte:

A larger installation may incorporate suspended kinetic targets inspired by the mobile sculptures of Alexander Calder.

Rather than relying exclusively upon stationary receiving surfaces, the laser trajectories would intersect suspended elements capable of independent mechanical movement.

These targets may incorporate photoluminescent coatings, fluorescent painting, diffusing materials, or other optical treatments.

Their movement introduces an additional variable into the projected composition.

The laser beam moves because of the pendulum's oscillation, while the receiving target moves independently within the installation.

The resulting interaction combines two distinct forms of kinetic activity.

1.] Moving Light Source: The suspended laser assembly generates changing beam trajectories.

2.] Moving Receiving Surface: Suspended sculptural elements introduce independently changing positions and orientations.

3.] Variable Beam Intersection: The location and duration of laser contact change according to the relative motion of the beam and receiving surface.

4.] Compound Kinetic Composition: The visible result emerges from the interaction of two moving systems rather than a single moving apparatus.

5.] Modular Installation: Individual suspended targets may be repositioned to investigate different spatial relationships and optical effects.

The proposed artistic dialogue, Calder Meets Millevolte, connects the tradition of suspended kinetic sculpture with contemporary optomechanical investigations of projected light.

The reference is to Calder-inspired sculptural principles rather than the incorporation of original Calder artworks.

Excellent addition. This introduces a volumetric embodiment, distinct from projection onto solid surfaces.

7.] Atmospheric Beam Visualization. Fog and Volumetric Luminous Trajectories:
The introduction of controlled atmospheric fog permits the Magnetic and Air-Driven Laser Pendulum to generate visible three-dimensional beam trajectories within the surrounding space.

Unlike conventional surface projection, which reveals the location where a laser beam intersects a receiving surface, suspended fog droplets scatter portions of the laser light toward the observer throughout the beam's path. As the pendulum oscillates, its four laser diodes sweep through the illuminated volume, producing changing spatial arrangements of luminous rays.

A.) Three-Dimensional Beam Visualization: Atmospheric scattering reveals the paths of laser beams through space, transforming otherwise largely invisible beam trajectories into observable volumetric compositions.

B.) Repetitive Beam Trajectories: Repeated pendular movements cause the beams to traverse corresponding regions of the fog-filled environment, producing recurring luminous paths.

C.) Temporal Visual Persistence: Rapidly repeated beam movements may produce the perceptual appearance of continuous luminous surfaces, fans, or overlapping rays. This effect depends upon beam velocity, repetition frequency, scattering intensity, and human temporal visual integration.

D.) Radial Beam Expansion: The four laser diodes project outward from the suspended assembly. Their changing orientations produce an expanding and contracting arrangement of visible rays that appear to fan outward through the surrounding atmosphere.

E.) Compound Volumetric Geometry: Multiple beams moving simultaneously may produce intersecting cones, sweeping planes, curved apparent surfaces, and changing three-dimensional geometric formations.

F.) Variable Atmospheric Density: Changes in fog concentration influence beam visibility, scattering intensity, contrast, and the perceived depth of the luminous composition.

G.) Spatial and Temporal Integration: The combination of visible beam paths, repeated trajectories, and observer-dependent temporal integration introduces the appearance of luminous geometry occupying three-dimensional space.

The fog does not physically preserve the laser trajectories after the beams move away. Apparent persistence results from repeated illumination and temporal visual processing. The resulting composition transforms the surrounding atmosphere into an active optical medium, allowing the pendulum's moving laser beams to generate luminous volumetric geometry rather than relying exclusively upon solid receiving surfaces.

8.] Photoluminescence and the Temporal Persistence of Light:

Photoluminescent receiving surfaces introduce an additional temporal dimension.

Unlike ordinary diffuse surfaces, which scatter incident light primarily while illuminated, appropriately selected phosphorescent materials may continue emitting visible light after excitation has ceased.

A moving laser beam may therefore produce a temporarily persistent luminous trace.

The duration and brightness of that trace depend upon the material's excitation characteristics, incident wavelength, optical power, exposure duration, and decay behavior.

A.) Excitation: Incident laser radiation supplies energy capable of activating a compatible photoluminescent material.

B.) Temporary Energy Storage: Certain phosphorescent materials retain part of the absorbed excitation energy in metastable states.

C.) Delayed Emission: Stored energy is released over time as visible radiation, producing an afterglow.

D.) Moving Optical Traces: As the laser spot traverses the surface, successive regions may remain luminous for different periods.

E.) Temporal Layering: Newly illuminated trajectories may overlap with fading earlier trajectories, producing compound luminous compositions.

The visual result depends upon the relationship between beam velocity, excitation efficiency, and photoluminescent decay.

A rapidly moving beam may provide insufficient exposure to generate a strong visible trace, while a slower trajectory may produce greater local excitation.

Experimental selection of compatible laser wavelengths and photoluminescent materials is therefore essential.

9.] Tabletop Prototype — Cubic Experimental Framework:
A compact tabletop prototype offers a practical means of investigating the Magnetic and Air-Driven Laser Pendulum's optical behavior before developing a larger architectural installation. The proposed experimental framework draws upon the cubic structural arrangement employed in Millevolte's earlier Cosmic Flowers investigations. A stationary cubic frame provides support for adjustable receiving panels positioned within the projected beam trajectories.

A.) Compact Suspended Assembly: Smaller laser diodes and a proportionately scaled suspension permit investigation within a limited working volume.

B.) Cubic Structural Frame: The surrounding framework provides defined spatial reference points for the arrangement of receiving surfaces.

C.) Adjustable Suspended Panels: Panels may be supported by four-point string suspensions, permitting adjustment of their height, orientation, and position.

D.) Photoluminescent Materials: Selected panels may incorporate compatible phosphorescent coatings to investigate temporary luminous traces.

E.) Variable Surface Geometry: Different panel angles and positions allow comparison of projected trajectories, optical velocity, and illuminated surface area.

F.) Adjustable Magnetic Arrangement: Individual magnets may be repositioned to investigate different pendular trajectories within the compact apparatus.

G.) Controlled Airflow: A small fan or comparable airflow source may provide repeatable mechanical excitation. The tabletop prototype is intended as a stationary-target experimental configuration. It does not require the suspended mobile elements proposed for larger installations. Its primary purpose is to investigate the interaction of magnetic placement, aerodynamic excitation, laser motion, and receiving-surface imagery.

10.] Outdoor Wind-Driven Embodiments:
Outdoor configurations introduce natural atmospheric conditions as an active mechanical component of the sculpture.
Rather than employing mechanically generated airflow, the suspended assembly may receive excitation directly from ambient wind.

A.) Wind Velocity:
Changes in wind speed influence the aerodynamic forces acting upon the suspended assembly.

B.) Wind Direction:
Changing airflow direction may alter the pendulum's movement and resulting optical trajectories.

C.) Turbulence:
Irregular atmospheric motion may introduce complex or changing oscillatory behavior.

D.) Magnetic Placement:
Individually positioned magnets provide an additional means of influencing the response to naturally varying aerodynamic forces.

E.) Architectural Projection:
Appropriate receiving surfaces may be incorporated into outdoor structures, enclosed installations, or designated projection environments.

F.) Environmental Protection:
Outdoor embodiments require suitable protection against precipitation, dust, temperature variation, and other environmental conditions. Outdoor installations would also require carefully engineered laser-beam containment. Unrestricted projection into open public space or the sky is not an acceptable operating assumption. The resulting system would transform naturally occurring atmospheric movement into changing luminous compositions.

11.] Indoor Forced-Air Embodiments:
Indoor installations offer greater control over the aerodynamic excitation supplied to the pendulum. Fans, blowers or other airflow-generating equipment may be positioned to influence the suspended assembly.

A.) Airflow Velocity:
Changing fan speed modifies the aerodynamic forces available to excite the pendulum.

B.) Airflow Direction:
Repositioning the airflow source changes the direction of the applied force.

C.) Airflow Distribution:
Concentrated or distributed airflow may produce different mechanical responses.

D.) Airflow Frequency:
Duration and frequency of air propulsion can produce different mechanical responses.

E.) Magnetic Interaction:
Individual magnetic placement introduces additional control over the resulting trajectory.

F.) Environmental Stability: Indoor conditions reduce some of the variability associated with outdoor wind, allowing more repeatable experiments.

G.) Controlled Optical Environment:
Interior architectural surfaces provide opportunities for coordinated projection, beam capture, and controlled ambient illumination. The combined adjustment of airflow and magnetic placement provides two distinct means of influencing the suspended assembly. Airflow supplies mechanical excitation, while magnetic arrangement modifies the resulting motion.

12.] Compound Motion and Three-Dimensional Optical Composition:
The Magnetic and Air-Driven Laser Pendulum combines mechanical motion occurring within three-dimensional space with projected optical trajectories distributed across surrounding surfaces. The suspended assembly may move through changing combinations of angular displacement, orbital movement, and rotational orientation. Its laser beams translate these movements into visible trajectories.

A.) Mechanical Trajectory:
The physical path followed by the suspended assembly.

B.) Beam Orientation:
The changing direction of each laser diode as the assembly moves.

C.) Projection Imagery:
The relationship between the moving beam and the receiving surface.

D.) Apparent Optical Velocity:
The speed at which the illuminated point travels across a receiving surface.

E.) Multiple Simultaneous Trajectories:
The compound composition produced by the four laser diodes.

F.) Temporal Visual Experience:
The observer's perception of continuously changing luminous positions and movement. The resulting visual composition is not a conventional two-dimensional animation projected from a stationary image-generating system. It is a spatially distributed optical event arising from physical movement.

12.] Historical Context: From Suspended Kinetic Sculpture to Luminous Calligraphy:
The Magnetic and Air-Driven Laser Pendulum occupies a conceptual intersection between kinetic sculpture, mechanical experimentation, and the artistic use of projected light.

Alexander Calder's suspended mobiles established an influential artistic language in which balance, gravity, air movement, and spatial arrangement become integral components of sculptural composition.

Millevolte's Magnetic and Air-Driven Laser Pendulum investigates related mechanical principles while introducing moving sources of concentrated illumination. The resulting optical trajectories extend the apparent visual composition beyond the physical dimensions of the suspended apparatus.

A.) Suspended Kinetic Sculpture:
The use of gravity, balance, and environmental forces to produce changing spatial relationships.

B.) Magnetic Kinetic Art:
The use of magnetic interaction to influence the movement of physical sculptural elements.

C.) Optical and Light Art:
The use of illumination as an active component of artistic composition.

D.) Luminous Calligraphy:
The transformation of moving projected points into continuously evolving line-like visual experiences.

E.) Calder Verses Millevolte:
A proposed installation combining Calder-inspired suspended luminous kinetic mobiles with Millevolte's moving laser excitation. Mobile targeted surfaces may be treated with photoluminescent pigmentation, reflective mosaics and materials, or have light diffusing properties. The historical comparison establishes artistic context only..

13.] Scalable Installations and Institutional Applications:
The apparatus may be developed across several scales, from compact experimental prototypes to larger architectural installations.

A.) Tabletop Experimental Sculpture: A small cubic framework incorporating adjustable magnetic elements, controlled airflow, and stationary receiving panels.

B.) Interior Gallery Installation: A suspended laser assembly projecting across designated architectural surfaces and experimental beam-capture materials.

C.) Suspended Kinetic Target Installation: A larger configuration incorporating independently moving receiving surfaces inspired by the principles of suspended mobile sculpture.

D.) Outdoor Wind-Driven Sculpture: A weather-resistant configuration utilizing natural airflow, with appropriate optical containment and environmental engineering.

E.) University Research and Development: An interdisciplinary investigation involving mechanical dynamics, magnetic fields, aerodynamic excitation, laser optics, photoluminescent materials, and human visual perception. These configurations represent different levels of fabrication complexity, engineering requirements, and institutional investment. A tabletop prototype may provide an initial means of demonstrating the underlying principles before pursuing a larger commission.

14.] Engineering, Optical Safety, and Experimental Validation:
The proposed apparatus incorporates established principles of pendular dynamics, aerodynamic forcing, magnetic interaction, and geometric optics. However, specific trajectories, operating ranges, optical velocities, and photoluminescent effects require experimental verification.

A.) Mechanical Stability: Suspension components must accommodate the mass, movement, and operating loads of the laser assembly.

B.) Magnetic Compatibility: The moving assembly must incorporate appropriate magnetic materials or components capable of interacting with the selected magnetic field arrangement.

C.) Aerodynamic Performance: The suspended assembly must possess sufficient aerodynamic coupling to respond to the intended airflow conditions.

D.) Optical Geometry: Projection distances and receiving-surface orientations must be evaluated to determine the resulting beam trajectories and apparent velocities.

E.) Laser Safety: All embodiments require appropriate laser classification, controlled beam paths, prevention of direct and hazardous reflected eye exposure, and suitable termination of projected beams. Public installations require professional laser-safety assessment and compliance with applicable regulations.

F.) Photoluminescent Compatibility: Materials must be selected and tested for their response to the laser wavelengths and exposure conditions employed.

G.) Outdoor Environmental Protection: Outdoor embodiments require appropriate weather resistance, structural stability, electrical protection, and consideration of public access and aviation hazards.

The scientific objective is to characterize the relationship between magnetic placement, aerodynamic excitation, mechanical motion, projection geometry, and optical response.

15.] Continuity of Artistic Principles:
The Magnetic and Air-Driven Laser Pendulum extends Millevolte's established investigation of mechanical motion as a means of generating optical phenomena. Rather than relying upon programmed imagery, the apparatus creates changing luminous compositions through the physical interaction of forces and materials.

Airflow supplies mechanical excitation. Magnetic placement influences the pendulum's trajectory. The suspended laser assembly transforms that movement into changing beam orientations. Spatial arrangement determines how those beams intersect receiving surfaces.
The resulting visual experience may take the form of uninterrupted luminous calligraphy, temporary photoluminescent traces, reflected trajectories, diffused luminous fields, or interactions with independently moving sculptural targets. Each configuration preserves the same underlying relationship between physical movement and optical transformation.

The Magnetic and Air-Driven Laser Pendulum transforms the movement of a suspended light source into an expansive visual language, using magnetic placement to influence mechanical trajectories and spatial arrangement to translate those trajectories into changing optical velocity.

Descriptions of tabletop prototypes, outdoor embodiments, kinetic receiving surfaces, and monumental installations represent proposed developments unless otherwise documented as completed. Historical comparisons with Alexander Calder and other kinetic-art traditions establish artistic context.

© 2026 Michael Millevolte. All Rights Reserved.
Original artwork, sculptural compositions, documentation, and associated artistic terminology are subject to applicable intellectual property protections. Proprietary mechanical systems, optical arrangements, and functional inventions may be eligible for patent protection, subject to applicable legal requirements. All applicable rights reserved.

USB powered LED lights (optional multi-mode with phone app and remote control), bleached cholla husks and branches, flipped glass vases and candles, marble screen matrices, sea shell mosaics, discarded laptop and tablet screens, electrical insulators, discarded desert weathered wood, discarded desert weathered rusted tin cap tops and bases with desert hardened sand.

Made mostly from an abandoned railroad dust fence. Cast polished iron HOWE [HOME with an upside down M] emblem removed from an abandoned scale on a rundown dilapidated industrial lot. LED puck lights with phone app and remote control.

Miniature nightscape in N scale with railroad. Wiring for the lighting utilized an under-table threaded rod buss system that ran the entire length of the layout. This was a winter hobby of mine that I enjoyed in my downtown De Pere, WI studio apartment. I spent a lot more time building structures and lighting them than I did messing around with the trains. In fact the trains were just an excuse to build a lighted city to scale. I saw it as a 3D version of my early nightscape paintings. That doesn't mean that my trackwork wasn't impeccable though.

Hand-painted fluorescent helicopter blades, with a paint roller. The time I talked a helicopter company into creating a blacklight helicopter for Perry Farrell and Lollapalooza.

The idea was to make the helicopter look like a giant dragonfly as it approached the stage to the music from Apocalypse Now. As the helicopter made its way closer to the stage, it was going to hit its search beam and sting "blast" a giant 10ft. dia. mirror ball positioned centrally on stage with its massive beam of light.

Of course, this was nearly madness. The FAA would have needed years to approve such a thing. I suspect Mr. Jablon was simply testing its viability for the future, as he had several stacks of decommissioned helicopter blades on hand.

Modified high-powered 5"x3" UV blacklight LED panels, discarded cast metal exit sign housing and base, fluorescent hand-painted fluorescent "tongue  depressor" blades fixed to layered computer fans with vibration dampening and orbital stabilizing hook and loop [Velcro] adheisive connections, synchronized variable speed controlled micro computer fans with discarded desert weathered wood framework, variable speed control module with digital readout.