1882

Birds in Flight

Étienne -Jules Marey

Marey 1882: Chronophotographic sequence of pelican in flight captured on single glass plate – motion study

Marey’s chronophotography captured movement's essence, revolutionising photography and setting the foundation for cinematography, influencing both artistic expression and scientific analysis.

Étienne-Jules Marey’s chronophotography marked a transformative moment in the history of photography by introducing the ability to capture multiple phases of movement within a single exposure. This breakthrough diverged sharply from the era’s standard single-shot photography, enabling the visualisation of motion and setting the stage for modern cinematography.

Marey's technique uniquely depicted the fluid dynamics of birds in flight, offering unprecedented insights into biomechanics and aerodynamic studies. With his chronophotographic gun, Marey captured up to twelve frames per second on a single glass plate using a rotating disk shutter, a pivotal innovation in high-speed photography. This method allowed for the detailed analysis of complex movements, influencing future technological advances in both film and digital imaging.

His work bridged art and science, inspiring artists to explore motion in new ways and providing scientists with valuable data. His contributions significantly altered the landscape of both disciplines, underlining photography’s potential as a multifaceted tool for artistic expression and scientific exploration.

KEY REFERENCE POINTS

TECHNICAL: Chronophotographic gun・12 frames/second・single glass plate exposure・rotating disk shutter・1583×785px original・JPEG/382KB

INFLUENCE: First systematic motion photography・precursor to cinematography・foundation for high-speed imaging・influenced Muybridge-era motion studies・Lumière Brothers lineage

ANALYTICAL: Visualises bird flight biomechanics・aerodynamic phase sequencing・multi-exposure single-frame methodology・enabled frame-by-frame motion analysis

CULTURAL IMPACT: Art-science convergence・redefined photography beyond single moment・inspired Futurism and motion art・reshaped visual understanding of time

ARCHIVAL RECORD

CREDIT: Étienne-Jules Marey, Public domain, via Wikimedia Commons

AUTHOR: Étienne-Jules Marey

TITLE: Unknown

DATE: circa 1882

ARCHIVE: Unknown

SOURCE: Wikimedia Commons

ORIGINAL: 1583 x 785 pixels, file size: 382 KB, MIME type: image/jpeg

AVAILABLE INFORMATION: A photo of flying pelican taken by Étienne-Jules Marey

Exploring the Influence of Proving an Assumption across Zero Baseline

Photography has often been used to settle questions that could not be resolved by assumption alone. Its impact comes from our inherent need to see in order to believe—turning speculation into something tangible and undeniable. These proofs revealed unseen mechanics of motion, verified natural patterns, and confirmed theoretical predictions. Advances in optics, timing, and image clarity increased the reliability of such evidence, ensuring that outcomes were no longer left to interpretation.

1878 EADWEARD MUYBRIDGE – THE HORSE IN MOTION
Sequential photographs proved that all four of a horse’s hooves leave the ground during a gallop, overturning a long-held visual assumption.

1882 WILLIAM JENNINGS – LIGHTNING
Photographs revealed that lightning follows jagged, branching paths rather than straight lines, visually disproving a centuries-old belief.

1882 ÉTIENNE-JULES MAREY – BIRDS
Chronophotographs demonstrated that birds’ wings trace complex elliptical paths in flight, offering unprecedented insight into biomechanics.

1888 ISAAC ROBERTS – NEBULA IN THE PLEIADES
Captured faint nebulosity around the Pleiades, confirming that interstellar dust reflects starlight as long suggested by theory.

1890 WILSON A. BENTLEY – PHOTOMICROGRAPH OF STELLAR SNOWFLAKE NO. 10
Photomicrograph confirmed that each snowflake has a unique crystalline structure, offering visual proof for theories of atmospheric formation.

1900 A.M. WORTHINGTON - SPLASH
Spark photographs revealed that a liquid impact forms a crown and rising column, proving that fluid motion follows consistent physical patterns.

Exploring the Influence of Motion Study across Zero Baseline

Motion study investigates the structure of movement — how motion unfolds, can be measured, and understood through photography. From early chronophotography to contemporary scientific visualisation, these works transform movement into a series of knowable forms. By segmenting motion into observable patterns, photography becomes a tool for analysing the mechanics of the visible world. Each image extends perception, revealing how things move, behave, and interact through time.

1878 EARDWEARD MUYBRIDGE – THE HORSE IN MOTION
Muybridge used sequential photography to dissect the gallop into still frames, revealing movement too fast for the eye and transforming how motion could be studied and understood.

1882 ÉTIENNE-JULES MAREY – BIRDS
Using chronophotography, Marey broke down continuous flight into discrete, analysable frames—laying the foundation for modern studies of motion and biomechanics.

1887 EADWEARD MUYBRIDGE – ANIMAL LOCOMOTION. PLATE 762
Sequential frames capturing the phases of a bird in flight, offering one of the earliest detailed visual studies of avian motion (bird motion).

1900 A.M. WORTHINGTON - SPLASH
Used spark photography to reveal the fluid structures formed in the instant of liquid impact.

1900 ÉTIENNE-JULES MAREY – AIR MOVEMENT IN A COLLISION WITH OBJECTS OF DIFFERENT SHAPES
Captured the flow of air as a continuous pattern, revealing the invisible movement shaped by varying forms and atmospheric resistance.

1973 BUBBLE CHAMBER-CERN-EX-23296
Captured the spiralling paths of subatomic particles through liquid, revealing motion patterns that defined their charge, momentum, and interactions.

2015 LIGHT AS WAVE AND PARTICLE
Captured light behaving simultaneously as both wave and particle, providing direct visual evidence of quantum duality.

2020 REGINA VALKENBORGH - PERPETUITY LONGEST EXPOSURE
The longest exposure ever made, this photograph traced 2,953 solar paths over eight years, transforming the passage of time into a single continuous image.