SPEC·0012.0k
Noise Worms · 001
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0021.4k
Noise Worms · 002
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0031.1k
Noise Worms · 003
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0042.1k
Noise Worms · 004
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0051.0k
Noise Worms · 005
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0061.4k
Noise Worms · 006
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0071.9k
Noise Worms · 007
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·008842
Noise Worms · 008
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0091.8k
Noise Worms · 009
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0101.6k
Noise Worms · 010
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·011891
Noise Worms · 011
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0122.0k
Noise Worms · 012
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0131.3k
Noise Worms · 013
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0141.1k
Noise Worms · 014
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0152.1k
Noise Worms · 015
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·016951
Noise Worms · 016
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0171.5k
Noise Worms · 017
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0181.9k
Noise Worms · 018
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·019832
Noise Worms · 019
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0201.9k
Noise Worms · 020
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0211.5k
Noise Worms · 021
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·022943
Noise Worms · 022
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0232.1k
Noise Worms · 023
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0241.2k
Noise Worms · 024
Long-trail agents navigate a Perlin vector field, leaving slow serpentine traces.
#noise#particles#organic
SPEC·0253.0k
Sand Simulation · 001
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0262.0k
Sand Simulation · 002
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0271.6k
Sand Simulation · 003
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0283.1k
Sand Simulation · 004
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0291.5k
Sand Simulation · 005
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0302.1k
Sand Simulation · 006
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0312.9k
Sand Simulation · 007
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0321.3k
Sand Simulation · 008
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0332.7k
Sand Simulation · 009
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0342.5k
Sand Simulation · 010
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0351.3k
Sand Simulation · 011
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0363.1k
Sand Simulation · 012
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0371.9k
Sand Simulation · 013
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0381.7k
Sand Simulation · 014
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0393.1k
Sand Simulation · 015
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0401.4k
Sand Simulation · 016
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0412.3k
Sand Simulation · 017
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0422.8k
Sand Simulation · 018
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0431.3k
Sand Simulation · 019
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0442.8k
Sand Simulation · 020
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0452.3k
Sand Simulation · 021
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0461.4k
Sand Simulation · 022
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0473.1k
Sand Simulation · 023
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0481.8k
Sand Simulation · 024
A cellular automaton of falling grains — each particle obeying simple gravity rules.
#simulation#cellular#particles
SPEC·0493.4k
Epicycles · 001
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0502.3k
Epicycles · 002
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0511.8k
Epicycles · 003
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0523.6k
Epicycles · 004
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0531.7k
Epicycles · 005
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0542.4k
Epicycles · 006
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0553.3k
Epicycles · 007
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0561.4k
Epicycles · 008
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0573.1k
Epicycles · 009
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0582.8k
Epicycles · 010
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0591.5k
Epicycles · 011
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0603.5k
Epicycles · 012
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0612.1k
Epicycles · 013
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0622.0k
Epicycles · 014
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0633.5k
Epicycles · 015
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0641.6k
Epicycles · 016
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0652.6k
Epicycles · 017
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0663.2k
Epicycles · 018
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0671.4k
Epicycles · 019
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0683.2k
Epicycles · 020
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0692.6k
Epicycles · 021
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0701.6k
Epicycles · 022
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0713.5k
Epicycles · 023
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0722.0k
Epicycles · 024
Nine rotating circles of decreasing radius trace a Fourier approximation in real time.
#mathematics#waves#simulation
SPEC·0731.6k
Orbit Trails · 001
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0741.1k
Orbit Trails · 002
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·075843
Orbit Trails · 003
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0761.6k
Orbit Trails · 004
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·077809
Orbit Trails · 005
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0781.1k
Orbit Trails · 006
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0791.5k
Orbit Trails · 007
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·080668
Orbit Trails · 008
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0811.4k
Orbit Trails · 009
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0821.3k
Orbit Trails · 010
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·083707
Orbit Trails · 011
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0841.6k
Orbit Trails · 012
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·085997
Orbit Trails · 013
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·086911
Orbit Trails · 014
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0871.6k
Orbit Trails · 015
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·088755
Orbit Trails · 016
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0891.2k
Orbit Trails · 017
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0901.5k
Orbit Trails · 018
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·091660
Orbit Trails · 019
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0921.5k
Orbit Trails · 020
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0931.2k
Orbit Trails · 021
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·094748
Orbit Trails · 022
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0951.6k
Orbit Trails · 023
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·096921
Orbit Trails · 024
Four bodies trace elliptical paths around a central mass, leaving fading luminous trails.
#simulation#physics#minimal
SPEC·0972.8k
Constellation · 001
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·0981.9k
Constellation · 002
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·0991.5k
Constellation · 003
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1002.9k
Constellation · 004
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1011.4k
Constellation · 005
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1022.0k
Constellation · 006
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1032.8k
Constellation · 007
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1041.2k
Constellation · 008
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1052.5k
Constellation · 009
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1062.3k
Constellation · 010
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1071.3k
Constellation · 011
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1082.9k
Constellation · 012
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1091.8k
Constellation · 013
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1101.6k
Constellation · 014
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1112.9k
Constellation · 015
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1121.3k
Constellation · 016
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1132.1k
Constellation · 017
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1142.7k
Constellation · 018
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1151.2k
Constellation · 019
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1162.6k
Constellation · 020
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1172.2k
Constellation · 021
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1181.3k
Constellation · 022
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1192.9k
Constellation · 023
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1201.6k
Constellation · 024
Particles drift slowly, connecting to nearby neighbors like stars in a night sky.
#particles#minimal#network
SPEC·1211.5k
Truchet Tiles · 001
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1221.0k
Truchet Tiles · 002
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·123811
Truchet Tiles · 003
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1241.6k
Truchet Tiles · 004
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·125778
Truchet Tiles · 005
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1261.1k
Truchet Tiles · 006
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1271.5k
Truchet Tiles · 007
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·128643
Truchet Tiles · 008
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1291.4k
Truchet Tiles · 009
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1301.2k
Truchet Tiles · 010
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·131680
Truchet Tiles · 011
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1321.6k
Truchet Tiles · 012
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·133959
Truchet Tiles · 013
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·134877
Truchet Tiles · 014
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1351.6k
Truchet Tiles · 015
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·136726
Truchet Tiles · 016
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1371.2k
Truchet Tiles · 017
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1381.4k
Truchet Tiles · 018
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·139635
Truchet Tiles · 019
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1401.4k
Truchet Tiles · 020
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1411.2k
Truchet Tiles · 021
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·142720
Truchet Tiles · 022
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1431.6k
Truchet Tiles · 023
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·144886
Truchet Tiles · 024
Quarter-circle arcs placed randomly on a grid form continuous flowing paths.
#geometry#tiling#generative
SPEC·1451.4k
Sine Plasma · 001
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·146927
Sine Plasma · 002
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·147725
Sine Plasma · 003
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1481.4k
Sine Plasma · 004
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·149696
Sine Plasma · 005
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·150966
Sine Plasma · 006
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1511.3k
Sine Plasma · 007
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·152575
Sine Plasma · 008
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1531.2k
Sine Plasma · 009
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1541.1k
Sine Plasma · 010
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·155608
Sine Plasma · 011
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1561.4k
Sine Plasma · 012
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·157858
Sine Plasma · 013
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·158784
Sine Plasma · 014
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1591.4k
Sine Plasma · 015
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·160649
Sine Plasma · 016
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1611.0k
Sine Plasma · 017
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1621.3k
Sine Plasma · 018
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·163568
Sine Plasma · 019
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1641.3k
Sine Plasma · 020
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1651.0k
Sine Plasma · 021
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·166644
Sine Plasma · 022
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1671.4k
Sine Plasma · 023
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·168792
Sine Plasma · 024
Four overlapping sine fields modulate a grid of luminance — a classic demo scene technique.
#waves#noise#oscillation
SPEC·1691.8k
Wave Interference · 001
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1701.2k
Wave Interference · 002
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·171958
Wave Interference · 003
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1721.9k
Wave Interference · 004
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·173919
Wave Interference · 005
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1741.3k
Wave Interference · 006
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1751.8k
Wave Interference · 007
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·176759
Wave Interference · 008
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1771.6k
Wave Interference · 009
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1781.5k
Wave Interference · 010
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·179804
Wave Interference · 011
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1801.8k
Wave Interference · 012
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1811.1k
Wave Interference · 013
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1821.0k
Wave Interference · 014
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1831.9k
Wave Interference · 015
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·184858
Wave Interference · 016
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1851.4k
Wave Interference · 017
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1861.7k
Wave Interference · 018
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·187750
Wave Interference · 019
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1881.7k
Wave Interference · 020
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1891.4k
Wave Interference · 021
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·190850
Wave Interference · 022
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1911.9k
Wave Interference · 023
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1921.0k
Wave Interference · 024
Overlapping sine waves at different frequencies create emergent interference patterns.
#waves#mathematics#oscillation
SPEC·1932.2k
Perlin Marble · 001
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·1941.5k
Perlin Marble · 002
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·1951.2k
Perlin Marble · 003
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·1962.3k
Perlin Marble · 004
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·1971.1k
Perlin Marble · 005
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·1981.6k
Perlin Marble · 006
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·1992.1k
Perlin Marble · 007
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·200927
Perlin Marble · 008
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2012.0k
Perlin Marble · 009
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2021.8k
Perlin Marble · 010
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·203981
Perlin Marble · 011
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2042.2k
Perlin Marble · 012
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2051.4k
Perlin Marble · 013
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2061.3k
Perlin Marble · 014
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2072.3k
Perlin Marble · 015
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2081.0k
Perlin Marble · 016
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2091.7k
Perlin Marble · 017
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2102.1k
Perlin Marble · 018
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·211916
Perlin Marble · 019
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2122.1k
Perlin Marble · 020
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2131.7k
Perlin Marble · 021
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2141.0k
Perlin Marble · 022
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2152.3k
Perlin Marble · 023
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2161.3k
Perlin Marble · 024
Horizontal lines displaced by layered Perlin noise simulate veins of flowing marble.
#noise#generative#organic
SPEC·2172.7k
Kaleidoscope · 001
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2181.8k
Kaleidoscope · 002
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2191.4k
Kaleidoscope · 003
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2202.8k
Kaleidoscope · 004
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2211.4k
Kaleidoscope · 005
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2221.9k
Kaleidoscope · 006
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2232.6k
Kaleidoscope · 007
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2241.1k
Kaleidoscope · 008
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2252.4k
Kaleidoscope · 009
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2262.2k
Kaleidoscope · 010
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2271.2k
Kaleidoscope · 011
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2282.8k
Kaleidoscope · 012
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2291.7k
Kaleidoscope · 013
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2301.6k
Kaleidoscope · 014
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2312.8k
Kaleidoscope · 015
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2321.3k
Kaleidoscope · 016
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2332.1k
Kaleidoscope · 017
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2342.6k
Kaleidoscope · 018
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2351.1k
Kaleidoscope · 019
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2362.5k
Kaleidoscope · 020
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2372.1k
Kaleidoscope · 021
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2381.3k
Kaleidoscope · 022
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2392.8k
Kaleidoscope · 023
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2401.6k
Kaleidoscope · 024
Ten mirror segments reflect animated line segments, building radially symmetric patterns.
#symmetry#geometry#rotation
SPEC·2411.8k
Lissajous Curves · 001
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2421.3k
Lissajous Curves · 002
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·243991
Lissajous Curves · 003
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2441.9k
Lissajous Curves · 004
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·245951
Lissajous Curves · 005
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2461.3k
Lissajous Curves · 006
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2471.8k
Lissajous Curves · 007
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·248785
Lissajous Curves · 008
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2491.7k
Lissajous Curves · 009
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2501.5k
Lissajous Curves · 010
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·251831
Lissajous Curves · 011
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2521.9k
Lissajous Curves · 012
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2531.2k
Lissajous Curves · 013
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2541.1k
Lissajous Curves · 014
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2551.9k
Lissajous Curves · 015
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·256887
Lissajous Curves · 016
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2571.4k
Lissajous Curves · 017
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2581.8k
Lissajous Curves · 018
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·259776
Lissajous Curves · 019
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2601.7k
Lissajous Curves · 020
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2611.4k
Lissajous Curves · 021
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·262879
Lissajous Curves · 022
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2631.9k
Lissajous Curves · 023
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2641.1k
Lissajous Curves · 024
Parametric sine curves with shifting phase ratios trace closed loops of ordered beauty.
#mathematics#oscillation#waves
SPEC·2652.1k
Geometric Mandala · 001
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2661.4k
Geometric Mandala · 002
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2671.1k
Geometric Mandala · 003
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2682.2k
Geometric Mandala · 004
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2691.1k
Geometric Mandala · 005
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2701.5k
Geometric Mandala · 006
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2712.0k
Geometric Mandala · 007
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·272884
Geometric Mandala · 008
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2731.9k
Geometric Mandala · 009
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2741.7k
Geometric Mandala · 010
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·275935
Geometric Mandala · 011
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2762.1k
Geometric Mandala · 012
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2771.3k
Geometric Mandala · 013
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2781.2k
Geometric Mandala · 014
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2792.2k
Geometric Mandala · 015
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·280999
Geometric Mandala · 016
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2811.6k
Geometric Mandala · 017
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2822.0k
Geometric Mandala · 018
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·283874
Geometric Mandala · 019
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2842.0k
Geometric Mandala · 020
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2851.6k
Geometric Mandala · 021
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·286990
Geometric Mandala · 022
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2872.2k
Geometric Mandala · 023
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2881.2k
Geometric Mandala · 024
Nested geometric layers rotate in opposing directions, forming hypnotic radial symmetry.
#geometry#symmetry#rotation
SPEC·2891.6k
L-System Plant · 001
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·2901.1k
L-System Plant · 002
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·291883
L-System Plant · 003
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·2921.7k
L-System Plant · 004
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·293848
L-System Plant · 005
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·2941.2k
L-System Plant · 006
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·2951.6k
L-System Plant · 007
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·296700
L-System Plant · 008
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·2971.5k
L-System Plant · 009
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·2981.4k
L-System Plant · 010
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·299741
L-System Plant · 011
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3001.7k
L-System Plant · 012
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3011.0k
L-System Plant · 013
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·302955
L-System Plant · 014
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3031.7k
L-System Plant · 015
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·304791
L-System Plant · 016
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3051.3k
L-System Plant · 017
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3061.6k
L-System Plant · 018
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·307692
L-System Plant · 019
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3081.6k
L-System Plant · 020
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3091.3k
L-System Plant · 021
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·310784
L-System Plant · 022
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3111.7k
L-System Plant · 023
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·312965
L-System Plant · 024
A Lindenmayer grammar rewrites itself four times, drawing a windswept fractal plant.
#fractal#nature#recursion
SPEC·3131.9k
Harmonograph · 001
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3141.3k
Harmonograph · 002
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3151.0k
Harmonograph · 003
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3162.0k
Harmonograph · 004
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·317970
Harmonograph · 005
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3181.3k
Harmonograph · 006
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3191.9k
Harmonograph · 007
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·320801
Harmonograph · 008
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3211.7k
Harmonograph · 009
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3221.6k
Harmonograph · 010
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·323848
Harmonograph · 011
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3241.9k
Harmonograph · 012
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3251.2k
Harmonograph · 013
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3261.1k
Harmonograph · 014
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3272.0k
Harmonograph · 015
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·328905
Harmonograph · 016
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3291.4k
Harmonograph · 017
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3301.8k
Harmonograph · 018
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·331792
Harmonograph · 019
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3321.8k
Harmonograph · 020
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3331.5k
Harmonograph · 021
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·334898
Harmonograph · 022
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3352.0k
Harmonograph · 023
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3361.1k
Harmonograph · 024
Three damped pendulums draw overlapping Lissajous figures that fade into stillness.
#oscillation#mathematics#physics
SPEC·3372.6k
Boids · 001
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3381.8k
Boids · 002
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3391.4k
Boids · 003
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3402.8k
Boids · 004
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3411.4k
Boids · 005
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3421.9k
Boids · 006
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3432.6k
Boids · 007
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3441.1k
Boids · 008
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3452.4k
Boids · 009
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3462.2k
Boids · 010
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3471.2k
Boids · 011
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3482.7k
Boids · 012
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3491.7k
Boids · 013
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3501.5k
Boids · 014
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3512.7k
Boids · 015
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3521.3k
Boids · 016
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3532.0k
Boids · 017
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3542.5k
Boids · 018
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3551.1k
Boids · 019
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3562.5k
Boids · 020
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3572.0k
Boids · 021
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3581.3k
Boids · 022
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3592.7k
Boids · 023
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3601.5k
Boids · 024
Two hundred agents follow three rules — separation, alignment, cohesion — and form emergent flocks.
#simulation#agents#emergent
SPEC·3612.0k
Spirograph · 001
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3621.4k
Spirograph · 002
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3631.1k
Spirograph · 003
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3642.1k
Spirograph · 004
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3651.0k
Spirograph · 005
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3661.4k
Spirograph · 006
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3672.0k
Spirograph · 007
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·368856
Spirograph · 008
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3691.8k
Spirograph · 009
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3701.7k
Spirograph · 010
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·371906
Spirograph · 011
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3722.1k
Spirograph · 012
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3731.3k
Spirograph · 013
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3741.2k
Spirograph · 014
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3752.1k
Spirograph · 015
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·376967
Spirograph · 016
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3771.5k
Spirograph · 017
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3781.9k
Spirograph · 018
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·379846
Spirograph · 019
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3801.9k
Spirograph · 020
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3811.6k
Spirograph · 021
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·382959
Spirograph · 022
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3832.1k
Spirograph · 023
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3841.2k
Spirograph · 024
Hypotrochoid curves layer over each other as inner radii slowly drift.
#geometry#mathematics#rotation
SPEC·3853.3k
Noise Flow Field · 001
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3862.2k
Noise Flow Field · 002
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3871.7k
Noise Flow Field · 003
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3883.4k
Noise Flow Field · 004
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3891.7k
Noise Flow Field · 005
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3902.3k
Noise Flow Field · 006
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3913.2k
Noise Flow Field · 007
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3921.4k
Noise Flow Field · 008
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3932.9k
Noise Flow Field · 009
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3942.7k
Noise Flow Field · 010
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3951.5k
Noise Flow Field · 011
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3963.3k
Noise Flow Field · 012
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3972.1k
Noise Flow Field · 013
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3981.9k
Noise Flow Field · 014
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·3993.4k
Noise Flow Field · 015
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4001.6k
Noise Flow Field · 016
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4012.5k
Noise Flow Field · 017
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4023.1k
Noise Flow Field · 018
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4031.4k
Noise Flow Field · 019
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4043.1k
Noise Flow Field · 020
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4052.5k
Noise Flow Field · 021
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4061.6k
Noise Flow Field · 022
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4073.4k
Noise Flow Field · 023
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4081.9k
Noise Flow Field · 024
Particles drift through a vector field shaped by Perlin noise, leaving ephemeral trails.
#particles#noise#generative
SPEC·4092.4k
String Art · 001
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4101.6k
String Art · 002
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4111.3k
String Art · 003
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4122.5k
String Art · 004
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4131.2k
String Art · 005
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4141.7k
String Art · 006
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4152.3k
String Art · 007
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4161.0k
String Art · 008
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4172.1k
String Art · 009
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4181.9k
String Art · 010
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4191.1k
String Art · 011
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4202.4k
String Art · 012
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4211.5k
String Art · 013
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4221.4k
String Art · 014
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4232.5k
String Art · 015
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4241.1k
String Art · 016
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4251.8k
String Art · 017
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4262.2k
String Art · 018
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·427988
String Art · 019
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4282.2k
String Art · 020
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4291.8k
String Art · 021
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4301.1k
String Art · 022
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4312.4k
String Art · 023
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4321.4k
String Art · 024
Lines connecting equally spaced points on a circle at a shifting multiplier trace a cardioid.
#geometry#mathematics#minimal
SPEC·4333.7k
Strange Attractor · 001
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4342.5k
Strange Attractor · 002
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4352.0k
Strange Attractor · 003
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4363.9k
Strange Attractor · 004
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4371.9k
Strange Attractor · 005
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4382.6k
Strange Attractor · 006
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4393.6k
Strange Attractor · 007
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4401.6k
Strange Attractor · 008
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4413.3k
Strange Attractor · 009
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4423.1k
Strange Attractor · 010
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4431.7k
Strange Attractor · 011
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4443.8k
Strange Attractor · 012
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4452.3k
Strange Attractor · 013
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4462.1k
Strange Attractor · 014
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4473.9k
Strange Attractor · 015
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4481.8k
Strange Attractor · 016
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4492.8k
Strange Attractor · 017
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4503.5k
Strange Attractor · 018
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4511.6k
Strange Attractor · 019
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4523.5k
Strange Attractor · 020
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4532.9k
Strange Attractor · 021
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4541.8k
Strange Attractor · 022
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4553.8k
Strange Attractor · 023
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4562.2k
Strange Attractor · 024
A Clifford attractor traced point by point — infinite paths through bounded chaos.
#chaos#mathematics#attractor
SPEC·4574.1k
Game of Life · 001
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4582.8k
Game of Life · 002
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4592.2k
Game of Life · 003
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4604.3k
Game of Life · 004
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4612.1k
Game of Life · 005
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4622.9k
Game of Life · 006
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4634.0k
Game of Life · 007
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4641.7k
Game of Life · 008
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4653.7k
Game of Life · 009
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4663.4k
Game of Life · 010
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4671.9k
Game of Life · 011
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4684.2k
Game of Life · 012
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4692.6k
Game of Life · 013
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4702.4k
Game of Life · 014
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4714.3k
Game of Life · 015
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4722.0k
Game of Life · 016
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4733.2k
Game of Life · 017
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4743.9k
Game of Life · 018
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4751.7k
Game of Life · 019
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4763.9k
Game of Life · 020
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4773.2k
Game of Life · 021
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4782.0k
Game of Life · 022
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4794.3k
Game of Life · 023
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4802.4k
Game of Life · 024
Conway's four rules applied to a grid — gliders, oscillators, and still lifes emerge from noise.
#cellular#simulation#emergent
SPEC·4813.9k
Metaballs · 001
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4822.6k
Metaballs · 002
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4832.1k
Metaballs · 003
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4844.1k
Metaballs · 004
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4852.0k
Metaballs · 005
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4862.8k
Metaballs · 006
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4873.8k
Metaballs · 007
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4881.6k
Metaballs · 008
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4893.5k
Metaballs · 009
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4903.2k
Metaballs · 010
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4911.7k
Metaballs · 011
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4924.0k
Metaballs · 012
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4932.4k
Metaballs · 013
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4942.2k
Metaballs · 014
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4954.0k
Metaballs · 015
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4961.9k
Metaballs · 016
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4973.0k
Metaballs · 017
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4983.7k
Metaballs · 018
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·4991.6k
Metaballs · 019
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·5003.6k
Metaballs · 020
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·5013.0k
Metaballs · 021
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·5021.8k
Metaballs · 022
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·5034.0k
Metaballs · 023
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·5042.3k
Metaballs · 024
Organic blobs drift and merge through additive light blending.
#organic#blobs#blending
SPEC·5055.0k
Fractal Tree · 001
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5063.4k
Fractal Tree · 002
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5072.7k
Fractal Tree · 003
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5085.2k
Fractal Tree · 004
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5092.6k
Fractal Tree · 005
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5103.5k
Fractal Tree · 006
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5114.9k
Fractal Tree · 007
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5122.1k
Fractal Tree · 008
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5134.5k
Fractal Tree · 009
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5144.1k
Fractal Tree · 010
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5152.2k
Fractal Tree · 011
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5165.1k
Fractal Tree · 012
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5173.1k
Fractal Tree · 013
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5182.9k
Fractal Tree · 014
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5195.2k
Fractal Tree · 015
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5202.4k
Fractal Tree · 016
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5213.8k
Fractal Tree · 017
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5224.7k
Fractal Tree · 018
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5232.1k
Fractal Tree · 019
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5244.7k
Fractal Tree · 020
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5253.8k
Fractal Tree · 021
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5262.4k
Fractal Tree · 022
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5275.2k
Fractal Tree · 023
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature
SPEC·5282.9k
Fractal Tree · 024
A recursive branching structure sways in a simulated wind, rendered depth by depth.
#fractal#recursion#nature