ABOUT SpaceSync
SPACESYNC converts visitor photographs into site-specific photomosaic media art inspired by local landmarks.
Real-time environmental and urban data reshape color, light, motion, atmosphere, and nature-inspired patterns
so each visit becomes a responsive public artwork.
DESIGN
SPACESYNC blends photomosaic composition, regional imagery, 3D landscape modeling, procedural animation, shaders, and particle systems to turn familiar scenery into a responsive public experience.
DESIGN_01
Visitor photographs become the visual texture of local scenery, allowing personal memories to form one shared landscape image.
DESIGN_02
Humidity, wind, waves, air quality, noise, and crowd density reshape light, color, motion, particles, and scene rhythm.
DESIGN_03
The design does not simply reproduce landmarks. It overlays familiar places with living forms, luminous particles, water, clouds, and motion.
DESIGN_04
The interface requires no complex controls. Visitors participate by sending photos, and the shared display continuously responds.
TECHNOLOGY
SPACESYNC collects visitor photos and site-relevant environmental or urban data, synchronizes and normalizes inputs with different formats and update cycles, then maps them into visual parameters for real-time photomosaic rendering.
TECH_02
Each installation selects two to four locally relevant data sources, then synchronizes visitor photos with environmental or urban data that arrive in different formats and update cycles.
TECH_03
A real-time photomosaic engine combines parametric mapping, procedural generation, particle systems, shaders, and live rendering so data can control color, brightness, density, motion, atmosphere, and scene transitions.
TECH_04
Screen metadata such as resolution, aspect ratio, curvature, and display geometry adapts the rendering area for flat, curved, and circular displays, while modular ingestion, mapping, assets, and calibration keep each installation reconfigurable.
TECH_05
Landscape assets, data sources, mapping rules, and display calibration can be replaced independently while preserving one coherent visual system.
