SOURCE FIELD STRUCTURED COLORS IMAGE PLANE REFRACTIVE PIXELS VIEWER PATH view path routed path viewer → pixel → source field → image
Refractive pixel routing — section diagram Each pixel routes one color to one viewer position
Computational Refractive Imaging · Storefront & Architectural Display

Light,
given
direction.

A new class of display for storefronts, lobbies, and architectural surfaces. Not print, not screen, not standard lightbox. An image that is computationally routed through geometry — formed at the eye, choreographed for motion, and structurally permanent.

The Medium Applications →
Scroll
Route
not emit
Color is computationally routed from a source field behind the display — not generated at the surface.
Move
native property
Viewer motion is not a limitation to engineer around. It is the primary expressive dimension of the medium.
Site
specific by design
Each installation is tuned to a specific space, viewer path, and desired visual behavior. There is no off-the-shelf version.
Zero
image-surface electronics
The display surface contains no electronics, no network connection, no firmware. Its logic is structural.
The Medium

Neither print,
nor screen.
Routed light.

Most storefront imagery is either printed on a surface, displayed on an LED screen, or backlit through a translucent substrate. Flective Windows does none of these in the usual way. It redirects light.

Each visible pixel in the image plane is a small refractive optical element. Behind the surface, at a controlled distance, sits a structured color field illuminated with ordinary white light. For a given viewer position, each pixel routes the viewing path toward a specific location on that source plane. The color found there becomes that pixel's visible color. Coordinated across the full surface, those routed colors assemble into an image.

The source is designed. The routing is computed. The image is assembled at the eye through geometry.

The image is therefore not statically stored in the way a print stores it, and not continuously emitted from a surface. It is constructed at the viewing position — which means it changes as the viewer moves. That is not a flaw. It is the medium's central capability.

Image Mechanism
Computational refractive routing
Each pixel redirects the viewing ray toward a specific location on a structured source plane behind the display
Source Field
Structured color regions — stripes, bands, gradients, or composite fields
Illuminated with ordinary white light; the field is computationally designed, not a hidden photograph
Cavity Depth
Part of the optical design
Real spatial depth between image plane and source plane — 1 to 6+ feet depending on installation type
Viewer Behavior
Motion-native, position-choreographed
The image can be designed to reveal, transform, degrade, or sequence as viewers move along any defined path
Surface Electronics
None
No LEDs, no active pixels, no firmware. Internal white light illuminates the source field — that is the only powered component
Material
Glass or high-index optical substrate
Premium installations favor glass for material dignity, polish quality, and architectural permanence
Stripe Orientation
Aligned to viewer motion path
Horizontal stripes for lateral pedestrian travel; vertical stripes for elevator or vertical movement; custom for complex paths
Mechanism

One pixel.
One viewer position.
One color.

For any given viewer position, each refractive pixel traces a path: from the eye through the pixel to a specific location on the color source plane behind the surface. The color at that location becomes the visible pixel color. Change the viewer's position and the source endpoint moves. Change the source field and the palette of the image changes.

Reflective Flective systems interrogate the light field in front of the surface. Refractive systems interrogate the light field behind it. The deeper logic is the same: the image is assembled through coordinated routing, not stored in a layer.

Stripe orientation is not arbitrary. It follows the dominant direction of the viewer's motion path. For a sidewalk pedestrian moving laterally, horizontal stripes allow each pixel to sustain its assigned color across a designed travel band. For glass elevator viewers moving vertically, vertical stripes allow discrete viewing windows — multiple image states, each reachable at a different floor.

Off-axis degradation does not need to be treated as failure. It can be designed as behavior: the image that resolves fully from one position and releases gracefully from another is a different class of display object from one that simply dims.

SOURCE FIELD Structured color stripes IMAGE PLANE Refractive pixels VIEWER PATH A · B · C walk view path routed to source
As the viewer moves along path A → B → C, the source endpoint for each pixel shifts. Stripe orientation sustains coherent color across a designed travel band — the viewing corridor is a computed property, not an accident of the geometry.
Image Behavior

The window has
choreography.

Not in the animated sense. The surface itself is static. The choreography is authored into the geometry of every pixel and the structure of the source field behind it. When a pedestrian approaches, enters the viewing corridor, and passes through it, the image can behave — not react.

I
Stable Image Corridor
Designed coherence across a travel band
The image resolves cleanly across a horizontal viewing range that matches the typical pedestrian's approach path. Inside the corridor: full image. Outside: a beautiful, non-figurative reflective surface. The window earns attention by being quiet about it.
II
Progressive Reveal
The image that arrives as you approach
Rather than snapping into full resolution, the work can be designed to accumulate gradually — sparse and suggestive at distance, full and specific at close approach. The pedestrian completes the image by walking toward it. This is a compositional choice, not a limitation.
III
Walking Sequence
Motion through the image as authorial form
With sufficient source-field depth, a window can be designed to show a different image state at each point along a long viewing path. This is not animation — the surface never changes. But the pedestrian experiences the image as an unfolding sequence across their natural walking distance.
IV
Graceful Off-Axis Release
Degradation as designed character
From oblique angles the image can be designed to soften, abstract, or dissolve rather than simply blur. The result is a display object with a different register at every position — never the same twice, but never ugly either. Dignity is not lost outside the viewing zone.
V
Dual or Multiple Image States
One surface, several complete images
The source field can be designed so that walking in one direction resolves a different complete image from walking in the other. This is not a compromise or a shared rendering. Each image is encoded in the geometry independently. Certain commuter or corridor contexts make this especially useful.
VI
Elevator and Vertical Motion
Image windows stacked by floor
For glass elevator applications, vertical stripes allow discrete image windows at different heights. Riders can look for a marker on the glass indicating their target floor. Each floor yields a different image state. The elevator shaft becomes an organized image sequence — with no moving parts of any kind.
Applications

Five territories
opened by the medium.

These are not feature categories. They follow from what computational refractive imaging can do that no other display technology can — and from where those capabilities are commercially, culturally, and architecturally most valuable.

I
Premium Storefront Windows
The most natural early application. A storefront window is already experienced in motion — pedestrians approach, pass, and depart. Flective Windows makes that motion part of the display logic rather than a nuisance to minimize. The window can hold stillness from the street, build intensity as the approach tightens, and shift in meaning as the viewer passes. For luxury retail, hospitality entries, and destination commercial frontage, this gives the window a dimension that LED, print, and standard lightbox cannot offer: genuine viewpoint-specific image behavior without any electronic image surface.
Luxury retail · flagship boutiques · hospitality entries · high-end commercial frontage
II
Passive Conditional Signage
A Flective surface can encode multiple independent image layers, each activated by a different light source. No electronics in the panel. The building's own controllable fixtures are the switches. Under baseline lighting: standard directional content. When an alert fixture activates: the safety message for that condition appears automatically. When it extinguishes, the panel silently returns to baseline. There is no network connection to the display surface — no firmware, no failure mode beyond the fixture itself.
Industrial safety · healthcare environments · transit infrastructure · data center facilities
III
Multi-State Cultural Installations
A single Flective panel can carry multiple complete and fully realized images — each activated by a different lighting configuration, each independently encoded in the geometry. Three gallery lighting states. Three complete works. No screen swaps, no projectors, no digital infrastructure connected to the surface. The institution's lighting program determines which work the visitor is currently experiencing. A permanent acquisition that rotates its register through the space's own light schedule.
Museum collections · gallery installations · cultural institutions · corporate art programs · hospitality design
IV
Seasonal Site-Responsive Architecture
An exterior Flective installation, designed with full seasonal light field data, presents distinct compositional states across the year — not because it changes, but because the light that animates it changes. Facets pointing toward high summer sun angles are vivid in June and absent in December. Facets tuned to low winter angles emerge in January and recede in July. The panel carries both simultaneously. The year determines which is shown. A building surface that marks season and time of day through physics — designed for a specific latitude, a specific orientation, a specific surrounding scene. Move it elsewhere and it becomes a different work entirely.
Civic buildings · cultural institutions · university campuses · corporate headquarters · public art commissions · landscape installations
V
Architectural Glass and Interior Features
Not all configurations are public-facing. A privacy window can be designed as a refractive tile pane that reads as textured glazing from most angles — but resolves an explicit image from a known desk, doorway, or room entry. A reception partition can hold a scene visible only from the approach. A lobby divider can show something distinct from each side. In these formats, the display is not a product placed in a space but a surface that knows the specific geometry of that space and responds to it.
Office interiors · reception areas · private retail salons · lobby features · architectural partitions
The Distinction

A different optical
object from lightbox,
lenticular, or screen.

Standard approaches

  • Standard lightbox: transmits a pre-existing printed image through a backlit face. The image is always fully present, always identical from any viewing angle, and determined entirely by the print.
  • Lenticular: reconstructs pre-stored, pre-sliced image strips through line lenses bonded close to the image layer. Viewing behavior is fixed and linear. Frame count is modest.
  • LED display: emits image-forming light from the surface itself. Requires continuous power, network connectivity, software maintenance, and a full electronics stack in the surface.
  • Decorative glazing: affects privacy and diffusion, but does not typically resolve explicit imagery from computationally designed viewpoints.

Flective Windows

  • Pixel lenses, not line lenses: refractive action at the pixel level gives the design far more freedom than line-lens systems and breaks the one-directional logic of classical lenticular behavior.
  • Raw color routing, not stored image strips: the source field is not a pre-composed image waiting to be reconstructed. It is a field of available colors whose geometry is sampled by the routing optics.
  • Real spatial depth between surface and source: that depth is one of the key design freedoms of the medium. It enables viewing corridor design, richer routing behavior, and effects unavailable to bonded optical sandwiches.
  • Zero electronics in the display surface: the system is structurally permanent. No software version to patch, no hardware cycle to replace, no panel to maintain.
Formats

Product configurations
by scale and application.

Discuss a site →
Tier One · Signature Installation
Flagship Storefront Systems
Large custom systems for luxury retail, flagship stores, destination hotels, and branded architectural features. Typically two or more inset 16:9 refractive image windows integrated into a full retail facade — one monochrome and one color work, or two related image states designed to read in sequence. The installation establishes the medium publicly and sets the benchmark for what the format can do.
Flagship boutiques · luxury mall anchors · destination hotel entries · premium hospitality
$50,000 — $150,000+
Tier Two · Architectural Feature
Corridor and Lobby Panels
Contained architectural installations inside stores, hotel corridors, office lobbies, and brand environments. Less publicly exposed than storefront windows; more immersive and positional. Typically tuned to a specific approach path rather than the full public sidewalk range.
Reception areas · corridor walls · brand interiors · private retail salons
$15,000 — $50,000
Specialty
See-Through Privacy Panes
Refractive tile panes designed to function as ordinary architectural glazing from most positions — maintaining privacy and visual texture — while resolving an explicit image from a specific desk, doorway, or approach point. The transparency is the camouflage. The image is the reward for correct alignment.
Office windows · divider glass · reception partitions · meeting room glazing
By proposal
Advanced
Hybrid Reflective / Refractive Systems
Some pixels source color from the world in front of the surface through reflection; others source color from the designed field behind through refraction. The result is a display with two competing image ecologies: one fed by the ambient environment, one by the internal color design. Day-to-night behavioral shifts, brightness layering, and conditional image dominance all become available in this format.
Flagship demonstrations · experimental commissions · IP-significant prototype installations
By proposal
Emerging
Exterior Seasonal Installations
Façade-integrated works designed with full annual light field data for a specific latitude and orientation. Content encoded in facets tuned to summer sun positions is vivid in June and absent in January. Content in facets pointing toward low winter angles does the opposite. No mechanism. No control system. The building marks the year through the physics of the surface.
Civic buildings · cultural institutions · public art commissions · university campuses
By proposal
Process

From viewing path
to installed window.

01
Viewer Path Design
Begin with the positions that matter. Sidewalk width, pedestrian speed, approach angle, viewing zone extent, frontage geometry. These are design inputs, not afterthoughts. The image logic is built around a real motion path, not a hypothetical viewer at some fixed distance.
02
Source Field Design
A structured color field is designed for the source plane behind the image surface. Its form — horizontal stripes, vertical stripes, bands, gradients, or more complex structures — follows the motion path and the desired image behavior. This is not a photograph. It is a designed color routing substrate.
03
Computational Optical Design
Software solves the routing problem pixel by pixel: the precise refractive geometry each element must embody to redirect the correct viewer-position ray toward the correct source color at the correct point in the viewing path. This is a light-routing design problem, not a conventional image-processing problem.
04
Fabrication
The refractive surface is produced through a precision optical fabrication path appropriate to the installation. Premium systems favor glass or glass-adjacent materials for surface quality, hardness, and architectural legitimacy. Replication from a precision master is the preferred path for production systems.
05
Installation and Commissioning
Installed to exact geometry. The source field is positioned, the internal illumination calibrated, and the viewing path confirmed against the design intent. Site-specificity is not a quality of the image. It is a quality of the medium. Commissioning is part of the work, not an optional final step.
Inquiry

Begin with
the site.

Each installation begins not with a product selection but with a conversation: what position matters, what path is walked, what the window should do in the designed viewing zone and what it should do outside it. From that conversation, the medium can be shaped to the space.

Project Inquiry About Flective →