Early history of animation

Last updated

For the history of animation after the development of celluloid film, see history of animation.

Contents

The earlyhistory of animation covers the period up to 1888, when celluloid film base was developed, a technology that would become the foundation for over a century of film. Humans have probably attempted to depict motion long before the development of cinematography. Much later, shadow play and the magic lantern (since circa 1659) offered popular shows with projected images on a screen, moving as the result of manipulation by hand and/or minor mechanics. In 1833, the stroboscopic disc (better known as the phenakistiscope) introduced the stroboscopic principles of modern animation, which decades later would also provide the basis for cinematography.

Early approaches to motion in art

There are several examples of early sequential images that may seem similar to series of animation drawings. Most of these examples would only allow an extremely low frame rate when they are animated, resulting in short and crude animations that are not very lifelike. However, it's very unlikely that these images were intended to be somehow viewed as an animation. It is possible to imagine technology that could have been used in the periods of their creation, but no conclusive evidence has been found (neither in artifacts nor in written sources). It is sometimes argued that these early series of images are too easily interpreted as "pre-cinema" by minds accustomed to films, comic books and other modern sequential images, while it is uncertain that the creators of these images envisioned anything like it. [1] Fluid animation needs a proper breakdown of a motion into the separate images of very short instances, which could hardly be imagined before modern times. [2] The notion of fractions of a second was underdeveloped until the nineteenth century, when photography and more precise measuring instruments were introduced, and philosophers started to replace the "mechanical" concepts of the Scientific Revolution with theories about "microtime". [3] Animation historian Giannalberto Bendazzi wrote that most of the productions from before the 19th century that may look like animation are anecdotal; they lack "a cause-and-effect connection to what we now call animation" and are "thus useless to our historical discourse. [4]

Early examples of attempts to capture the phenomenon of motion into a still drawing can be recognised in paleolithic cave paintings, for instance in the Cave of Altamira, where animals are sometimes depicted with multiple legs in superimposed positions. [5] It has been claimed that such superimposed figures were intended to be animated with the flickering light of a fire or of a passing torch, alternately illuminating different parts of the painted rock wall and thus revealing different parts of the motion. [6] [7] Changing one's viewing position can also cause an animated effect in the legs, necks and heads of many examples, due to specific anamorphic distortions that mimick squash and stretch principles observed in real moving animals. [8]

Copy of a prehistoric painting of the Lascaux cave, Musee d'Aquitaine XDSC 7441-musee-d-Aquitaine-grotte Lascaux.jpg
Copy of a prehistoric painting of the Lascaux cave, Musée d'Aquitaine

Five paintings of the head of a deer in the cave of Lascaux have been interpreted as the depiction of one moving animal in different positions. [9]

Archaeological finds of small paleolithic discs with a hole in the middle and drawings on both sides have been claimed to be a kind of prehistoric thaumatropes that show motion when spun on a string. [6] [10]

A roll-out view of the five images on the circumference of a goblet found at Shahr-e Sukhteh, estimated to be 4000 to 4500 years old Shahr-e Sukhteh ibex goblet.jpg
A roll-out view of the five images on the circumference of a goblet found at Shahr-e Sukhteh, estimated to be 4000 to 4500 years old

A pottery bowl dated to 2500 to 2000 BCE [11] and discovered at the archaeological site of Shahr-e Sukhteh in Iran (associated with the Helmand culture), has five images painted around it that have been interpreted as consecutive phases of a goat leaping up to nip at a tree. [12] [13]

Drawing of an Egyptian burial chamber mural, approximately 4000 years old, showing wrestlers in action. Egyptmotionseries.jpg
Drawing of an Egyptian burial chamber mural, approximately 4000 years old, showing wrestlers in action.

An Egyptian mural approximately 4000 years old, found in the tomb of Khnumhotep at the Beni Hassan cemetery, features a very long series of images that apparently depict the sequence of events in a wrestling match. [14]

The Parthenon Frieze (circa 400 BCE) has been described as displaying analysis of motion and representing phases of movement, structured rhythmic and melodically with counterpoints like a symphony. It has been claimed that parts actually form a coherent animation if the figures are shot frame by frame. [15] Although the structure follows a unique time-space continuum, it has narrative strategies. [16]

The Roman poet and philosopher Lucretius (c. 99 BCE – c. 55 BCE) wrote in his poem De rerum natura a few lines that come close to the basic principles of animation: "...when the first image perishes and a second is then produced in another position, the former seems to have altered its pose. Of course, this must be supposed to take place very swiftly: so great is their velocity, so great the store of particles in any single moment of sensation, to enable the supply to come up." This was in the context of dream images, rather than images produced by an actual or imagined technology. [17] [18]

The medieval codex Sigenot (circa 1470) has sequential illuminations with relatively short intervals between different phases of action. Each page has a picture inside a frame above the text, with great consistency in size and position throughout the book (with a consistent difference in size for the recto and verso sides of each page). [19]

A page of drawings [20] by Leonardo da Vinci (1452–1519) show anatomical studies with four different angles of the muscles of shoulder, arm and neck of a man. The four drawings can be read as a rotating movement.

Ancient Chinese records contain several mentions of devices, including one made by the inventor Ding Huan, said to "give an impression of movement" to a series of human or animal figures on them, [21] but these accounts are unclear and may only refer to the actual movement of the figures through space. [22]

Since before 1000 CE, the Chinese had a revolving lantern that had silhouettes projected on its thin paper sides that appeared to chase each other. This was called the "trotting horse lamp" [走馬燈] as it would typically depict horses and horse-riders. The cut-out silhouettes were attached inside the lantern to a shaft with a paper vane impeller on top, rotated by heated air rising from a lamp. Some versions added extra motion with jointed heads, feet or hands of figures triggered by a transversely connected iron wire. [23]

Volvelles have moving parts, but these and other paper materials that can be manipulated into motion are usually not regarded as animation.

Shadow play

Shadow play figures, circa 1780. OFB-Qianlongsatz03-Krieger.JPG
Shadow play figures, circa 1780.

Shadow play has much in common with animation: people watching moving figures on a screen as a popular form of entertainment, usually a story with dialogue, sounds and music. The figures could be very detailed and very articulated.

The earliest projection of images was most likely done in primitive shadowgraphy dating back to prehistory. It evolved into more refined forms of shadow puppetry, mostly with flat jointed cut-out figures which are held between a source of light and a translucent screen. The shapes of the puppets sometimes include translucent color or other types of detailing. The history of shadow puppetry is uncertain, but seems to have originated in Asia, possibly in the 1st millennium BCE. Clearer records seem to go back to around 900 CE. It later spread to the Ottoman Empire and seems not to have reached Europe before the 17th century. It became popular in France at the end of the 18th century. François Dominique Séraphin started his elaborate shadow shows in 1771 and performed them until his death in 1800. His heirs continued until their theatre closed in 1870. Séraphin sometimes used clockwork mechanisms to automate the show.

Around the time cinematography was developed, several theaters in Montmartre showed elaborate, successful "Ombres Chinoises" shows. The famous Le Chat Noir produced 45 different shows between 1885 and 1896.

The Magic Lantern

Christiaan Huygens' 1659 sketches for a projection of Death taking off his head 1659 Christiaan Huygens - figure1 for magic lantern.jpg
Christiaan Huygens' 1659 sketches for a projection of Death taking off his head
Slide with a fantoccini trapeze artist and a chromatrope border design (circa 1880) Fantoccini-chromatrope.jpg
Slide with a fantoccini trapeze artist and a chromatrope border design (circa 1880)

Moving images were possibly projected with the magic lantern since its invention by Christiaan Huygens in 1659. His sketches for magic lantern slides have been dated to that year and are the oldest known document concerning the magic lantern. [24] One encircled sketch depicts Death raising his arm from his toes to his head, another shows him moving his right arm up and down from his elbow and yet another taking his skull off his neck and placing it back. Dotted lines indicate the intended movements.

Techniques to add motion to painted glass slides for the magic lantern were described since circa 1700. These usually involved parts (for instance, limbs) painted on one or more extra pieces of glass moved by hand or small mechanisms across a stationary slide which showed the rest of the picture. [25] Popular subjects for mechanical slides included the sails of a windmill turning, a procession of figures, a drinking man lowering and raising his glass to his mouth, a head with moving eyes, a nose growing very long, rats jumping in the mouth of a sleeping man. A more complex 19th century rackwork slide showed the then known eight planets and their satellites orbiting around the sun. [26] Two layers of painted waves on glass could create a convincing illusion of a calm sea turning into a stormy sea tossing some boats about by increasing the speed of the manipulation of the different parts.

In 1770 Edmé-Gilles Guyot detailed how to project a magic lantern image on smoke to create a transparent, shimmering image of a hovering ghost. This technique was used in the phantasmagoria shows that became popular in several parts of Europe between 1790 and the 1830s. Other techniques were developed to produce convincing ghost experiences. The lantern was handheld to move the projection across the screen (which was usually an almost invisible transparent screen behind which the lanternist operated hidden in the dark). A ghost could seem to approach the audience or grow larger by moving the lantern away from the screen, sometimes with the lantern on a trolley on rails. Multiple lanterns made ghosts move independently and were occasionally used for superimposition in the composition of complicated scenes. [27]

Dissolving views became a popular magic lantern show, especially in England in the 1830s and 1840s. [27] These typically had a landscape changing from a winter version to a spring or summer variation by slowly diminishing the light from one version while introducing the aligned projection of the other slide. [28] Another use showed the gradual change of, for instance, groves into cathedrals. [29]

Between the 1840s and 1870s several abstract magic lantern effects were developed. This included the chromatrope which projected dazzling colorful geometrical patterns by rotating two painted glass discs in opposite directions. [30]

Occasionally small shadow puppets had been used in phantasmagoria shows. [27] Magic lantern slides with jointed figures set in motion by levers, thin rods, or cams and worm wheels were also produced commercially and patented in 1891. A popular version of these "Fantoccini slides" had a somersaulting monkey with arms attached to mechanism that made it tumble with dangling feet. Fantoccini slides are named after the Italian word for puppets like marionettes or jumping jacks. [31]

19th century devices

Numerous devices that successfully displayed animated images were introduced well before the 1888 advent of celluloid film and the motion picture. These devices were used to entertain, amaze, and sometimes even frighten people. The majority of these devices didn't project their images, and could only be viewed by a one or a few persons at a time. They were largely considered optical toys at the time. Many of these devices are still built by and for film students learning the basic principles of animation.

Prelude

Illustrations of Michael Faraday's experiments with rotating wheels with cogs or spokes (1831) Illustrations of Michael Faraday's paper "On a Peculiar Class of Optical Deceptions" (1831).jpg
Illustrations of Michael Faraday's experiments with rotating wheels with cogs or spokes (1831)

An article in the Quarterly Journal of Science, Literature, and The Arts (1821) [32] raised interest in optical illusions of curved spokes in rotating wheels seen through vertical apertures. In 1824, Peter Mark Roget provided mathematical details about the appearing curvatures and added the observation that the spokes appeared motionless. Roget claimed that the illusion is due to the fact "that an impression made by a pencil of rays on the retina, if sufficiently vivid, will remain for a certain time after the cause has ceased." [33] This was later seen as the basis for the theory of "persistence of vision" as the principle of how we see film as motion rather than the successive stream of still images actually presented to the eye. This theory has been discarded as the (sole) principle of the effect since 1912, but remains in many film history explanations. However, Roget's experiments and explanation did inspire further research by Michael Faraday and by Joseph Plateau that eventually brought about the invention of animation.

Thaumatrope (1825)

In April 1825 the first thaumatrope was published by W. Phillips (in anonymous association with John Ayrton Paris) and became a popular toy. [34] The pictures on either side of a small cardboard disc seem to blend into one combined image when it is twirled quickly by the attached strings. This is often used as an illustration of what has often been called "persistence of vision", presumably referring to the effect in which the impression of a single image persists although in reality two different images are presented with interruptions. It is unclear how much of the effect relates to positive afterimages. Although a thaumatrope can also be used for two-phase animation, no examples are known to have been produced with this effect until long after the phénakisticope had established the principle of animation.

Phénakistiscope (1833)

Prof. Stampfers Stroboscopische Scheibe No. X (1833) Prof. Stampfer's Stroboscopische Scheibe No. X.gif
Prof. Stampfers Stroboscopische Scheibe No. X (1833)

The phénakisticope (better known by the misspelling phenakistiscope or phenakistoscope) was the first animation device using rapid successive substitution of sequential pictures. The pictures are evenly spaced radially around a disc, with small rectangular apertures at the rim of the disc. The animation could be viewed through the slits of the spinning disc in front of a mirror. It was invented in November or December 1832 by the Belgian Joseph Plateau and almost simultaneously by the Austrian Simon von Stampfer. Plateau first published about his invention in January 1833. The publication included an illustration plate of a fantascope with 16 frames depicting a pirouetting dancer. The phénakisticope was successful as a novelty toy and within a year many sets of stroboscopic discs were published across Europe, with almost as many different names for the device - including Fantascope (Plateau), The Stroboscope (Stampfer) and Phénakisticope (Parisian publisher Giroux & Cie). Plateau also proposed that 16 plaster models could be used for the purpose of animation, an early example of stop motion. [35] Unfortunately, the plan was never executed, possibly because Plateau was almost completely blind by this time.

Zoetrope (1833/1866)

In July 1833, Simon Stampfer described the possibility of using the stroboscope principle in a cylinder (as well as on looped strips) in a pamphlet accompanying the second edition of his version of the phénakisticope. [36] British mathematician William George Horner suggested a cylindrical variation of Plateau's phénakisticope in January 1834. Horner planned to publish this Dædaleum with optician King, Jr in Bristol but it "met with some impediment probably in the sketching of the figures". [37]

In 1865, William Ensign Lincoln invented the definitive zoetrope with easily replaceable strips of images. It also had an illustrated paper disc on the base, which was not always exploited on the commercially produced versions. [38] Lincoln licensed his invention to Milton Bradley and Co. who first advertised it on December 15, 1866. [39]

In 1887, Étienne-Jules Marey created a large zoetrope with a series of plaster models based on his chronophotographs of birds in flight. [40]

Flip book (kineograph) (1868)

illustration of the Kineograph in Linnett's 1868 patent 1868 linett kineograph patent fig. III.jpg
illustration of the Kineograph in Linnett's 1868 patent

John Barnes Linnett patented the first flip book in 1868 as the kineograph. [41] [42] A flip book is a small book with relatively springy pages, each having one in a series of animation images located near its unbound edge. The user bends all of the pages back, normally with the thumb, then by a gradual motion of the hand allows them to spring free one at a time. As with the phenakistoscope, zoetrope and praxinoscope, the illusion of motion is created by the apparent sudden replacement of each image by the next in the series, but unlike those other inventions, no view-interrupting shutter or assembly of mirrors is required and no viewing device other than the user's hand is absolutely necessary. Early film animators cited flip books as their inspiration more often than the earlier devices, which did not reach as wide an audience. [43]

The older devices by their nature severely limit the number of images that can be included in a sequence without making the device very large or the images impractically small. The book format still imposes a physical limit, but many dozens of images of ample size can easily be accommodated. Inventors stretched even that limit with the mutoscope, patented in 1894 and sometimes still found in amusement arcades. It consists of a large circularly-bound flip book in a housing, with a viewing lens and a crank handle that drives a mechanism that slowly rotates the assembly of images past a catch, sized to match the running time of an entire reel of film.

Le singe musicien (1878) praxinoscope animation

Praxinoscope (1877)

French inventor Charles-Émile Reynaud developed the praxinoscope in 1876 and patented it in 1877. [44] It is similar to the zoetrope but instead of the slits in the cylinder it has twelve rectangular mirrors placed evenly around the center of the cylinder. Each mirror reflects another image of the picture strip placed opposite on the inner wall of the cylinder. When rotating the praxinoscope shows the sequential images one by one, resulting in fluid animation. The praxinoscope allowed a much clearer view of the moving image compared to the zoetrope, since the zoetrope's images were actually mostly obscured by the spaces in between its slits. In 1879, Reynaud registered a modification to the praxinoscope patent to include the Praxinoscope Théâtre, which utilized the Pepper's ghost effect to present the animated figures in an exchangeable background. Later improvements included the "Praxinoscope à projection" (marketed since 1882) which used a double magic lantern to project the animated figures over a still projection of a background. [45]

Zoopraxiscope (1879)

Eadweard Muybridge had circa 70 of his famous chronophotographic sequences painted on glass discs for the zoopraxiscope projector that he used in his popular lectures between 1880 and 1895. In the 1880s the images were painted onto the glass in dark contours. Later discs made between 1892 and 1894 had outlines drawn by Erwin F. Faber that were photographically printed on the disc and then coloured by hand, but these were probably never used in the lectures. The painted figures were largely transposed from the photographs, but many fanciful combinations were made and sometimes imaginary elements were added. [46] [47]

After 1888

The development of flexible waxed paper or celluloid photographic film around 1885 turned out to be a very welcome medium for experimenters who hoped to create motion pictures. Le Prince was possibly the first to record motion on such rolls of film around 1888, followed by William K. L. Dickson/Edison's Kinetoscope (eventually introduced in 1893) and Lumière's Cinematograph. [48] Since the photographic detail and the realism of the images were among the best appreciated features of motion pictures, animation did not immediately find its place on the silver screen. [49] When it eventually did, it soon gained enormous successes and was there to stay.

Related Research Articles

<span class="mw-page-title-main">Magic lantern</span> Type of image projector

The magic lantern, also known by its Latin name lanterna magica, was an early type of image projector that used pictures—paintings, prints, or photographs—on transparent plates, one or more lenses, and a light source. Because a single lens inverts an image projected through it, slides were inserted upside down in the magic lantern, rendering the projected image correctly oriented.

<span class="mw-page-title-main">Persistence of vision</span> Optical illusion

Persistence of vision is the optical illusion that occurs when the visual perception of an object does not cease for some time after the rays of light proceeding from it have ceased to enter the eye. The illusion has also been described as "retinal persistence", "persistence of impressions", simply "persistence" and other variations. A very commonly given example of the phenomenon is the apparent fiery trail of a glowing coal or burning stick while it is whirled around in the dark.

<span class="mw-page-title-main">Zoetrope</span> Pre-cinema animation device

A zoetrope is a pre-film animation device that produces the illusion of motion, by displaying a sequence of drawings or photographs showing progressive phases of that motion. A zoetrope is a cylindrical variant of the phénakisticope, an apparatus suggested after the stroboscopic discs were introduced in 1833. The definitive version of the zoetrope, with replaceable film picture film strips, was introduced as a toy by Milton Bradley in 1866 and became very successful.

Visual effects is the process by which imagery is created or manipulated outside the context of a live-action shot in filmmaking and video production. The integration of live-action footage and other live-action footage or CGI elements to create realistic imagery is called VFX.

<span class="mw-page-title-main">Émile Reynaud</span> French inventor (1844–1918)

Charles-Émile Reynaud was a French inventor, responsible for the praxinoscope and was responsible for the first projected animated films. His Pantomimes Lumineuses premiered on 28 October 1892 in Paris. His Théâtre Optique film system, patented in 1888, is also notable as the first known instance of film perforations being used. The performances predated Auguste and Louis Lumière's first paid public screening of the cinematographe on 26 December 1895, often seen as the birth of cinema.

<span class="mw-page-title-main">Phenakistiscope</span> First widespread animation device that created a fluid illusion of motion

The phenakistiscope was the first widespread animation device that created a fluent illusion of motion. Dubbed Fantascope and Stroboscopische Scheiben by its inventors, it has been known under many other names until the French product name Phénakisticope became common. The phenakistiscope is regarded as one of the first forms of moving media entertainment that paved the way for the future motion picture and film industry. Similar to a GIF animation, it can only show a short continuous loop.

<span class="mw-page-title-main">Praxinoscope</span> Animation device

The praxinoscope was an animation device, the successor to the zoetrope. It was invented in France in 1877 by Charles-Émile Reynaud. Like the zoetrope, it used a strip of pictures placed around the inner surface of a spinning cylinder. The praxinoscope improved on the zoetrope by replacing its narrow viewing slits with an inner circle of mirrors, placed so that the reflections of the pictures appeared more or less stationary in position as the wheel turned. Someone looking in the mirrors would therefore see a rapid succession of images producing the illusion of motion, with a brighter and less distorted picture than the zoetrope offered.

<span class="mw-page-title-main">Flip book</span> Optical toy

A flip book, flipbook, flicker book, or kineograph is a booklet with a series of images that very gradually change from one page to the next, so that when the pages are viewed in quick succession, the images appear to animate by simulating motion or some other change. Often, flip books are illustrated books for children, but may also be geared toward adults and employ a series of photographs rather than drawings. Flip books are not always separate books, but may appear as an added feature in ordinary books or magazines, frequently using the page corners. Software packages and websites are also available that convert digital video files into custom-made flip books.

<span class="mw-page-title-main">Stroboscope</span> Instrument used to make a cyclically moving object appear to be slow-moving, or stationary

A stroboscope, also known as a strobe, is an instrument used to make a cyclically moving object appear to be slow-moving, or stationary. It consists of either a rotating disk with slots or holes or a lamp such as a flashtube which produces brief repetitive flashes of light. Usually, the rate of the stroboscope is adjustable to different frequencies. When a rotating or vibrating object is observed with the stroboscope at its vibration frequency, it appears stationary. Thus stroboscopes are also used to measure frequency.

<span class="mw-page-title-main">Electrotachyscope</span> Early motion-picture system invented in 1886

The Elektrischen Schnellseher or Electrotachyscope was an early motion picture system developed by chronophotographer Ottomar Anschütz between 1886 and 1894. He made at least seven different versions of the machine, including a projector, a peep-box viewer and several versions with illuminated glass photographs on a rotating wheel viewed on a 12.5 cm (4.9 in) wide milk glass screen by up to seven people at the same time.

<span class="mw-page-title-main">Precursors of film</span> Methods and tools preceding true cinematographic technology

Precursors of film are concepts and devices that have much in common with the later art and techniques of cinema.

<span class="mw-page-title-main">Théâtre Optique</span>

The Théâtre Optique is an animated moving picture system invented by Émile Reynaud and patented in 1888. From 28 October 1892 to March 1900 Reynaud gave over 12,800 shows to a total of over 500,000 visitors at the Musée Grévin in Paris. His Pantomimes Lumineuses series of animated films include Pauvre Pierrot and Autour d'une cabine. Reynaud's Théâtre Optique predated Auguste and Louis Lumière's first commercial, public screening of the cinematograph on 28 December 1895, which has long been seen as the birth of film.

Art of Disney Animation is an attraction at the Disney California Adventure in Disneyland Resort and Hong Kong Disneyland in Hong Kong Disneyland Resort. In Walt Disney Studios Park, the attraction opened on March 16, 2002 in the Toon Studio area, but was closed on January 7, 2019. It was reopened on November 17, 2019.

<span class="mw-page-title-main">Film</span> Visual art consisting of moving images

A film – also called a movie, motion picture, moving picture, picture, photoplay or (slang) flick – is a work of visual art that simulates experiences and otherwise communicates ideas, stories, perceptions, feelings, beauty, or atmosphere through the use of moving images. These images are generally accompanied by sound and, more rarely, other sensory stimulations. The word "cinema", short for cinematography, is often used to refer to filmmaking and the film industry, and the art form that is the result of it. Films can vary in genre, style, length and format, and they are typically produced for entertainment, education, cultural expression, or commercialpurposes. They are usually shown in theaters, on television, or via streaming platforms.

<span class="mw-page-title-main">Simon von Stampfer</span> Austrian mathematician (1792–1864)

Simon Ritter von Stampfer, in Windisch-Mattrai, Archbishopric of Salzburg today called Matrei in Osttirol, Tyrol – 10 November 1864 in Vienna) was an Austrian mathematician, surveyor and inventor. His most famous invention is that of the stroboscopic disk which has a claim to be the first device to show moving images. Almost simultaneously, a similar device was developed in Belgium.

<span class="mw-page-title-main">Museum of Precinema</span>

The Museum of Precinema is a museum in the Palazzo Angeli, Prato della Valle, Padua, Italy, related to the history of precinema, or precursors of film. It was created in 1998 to display the Minici Zotti Collection, in collaboration with the Comune di Padova. It also produces interactive touring exhibitions and makes valuable loans to other prestigious exhibitions such as 'Lanterne magique et film peint' at the Cinémathèque Française in Paris and the Museum of Cinema in Turin.

<span class="mw-page-title-main">History of film technology</span> Aspect of motion picture history

The history of film technology traces the development of techniques for the recording, construction and presentation of motion pictures. When the film medium came about in the 19th century, there already was a centuries old tradition of screening moving images through shadow play and the magic lantern that were very popular with audiences in many parts of the world. Especially the magic lantern influenced much of the projection technology, exhibition practices and cultural implementation of film. Between 1825 and 1840, the relevant technologies of stroboscopic animation, photography and stereoscopy were introduced. For much of the rest of the century, many engineers and inventors tried to combine all these new technologies and the much older technique of projection to create a complete illusion or a complete documentation of reality. Colour photography was usually included in these ambitions and the introduction of the phonograph in 1877 seemed to promise the addition of synchronized sound recordings. Between 1887 and 1894, the first successful short cinematographic presentations were established. The biggest popular breakthrough of the technology came in 1895 with the first projected movies that lasted longer than 10 seconds. During the first years after this breakthrough, most motion pictures lasted about 50 seconds, lacked synchronized sound and natural colour, and were mainly exhibited as novelty attractions. In the first decades of the 20th century, movies grew much longer and the medium quickly developed into one of the most important tools of communication and entertainment. The breakthrough of synchronized sound occurred at the end of the 1920s and that of full color motion picture film in the 1930s. By the start of the 21st century, physical film stock was being replaced with digital film technologies at both ends of the production chain by digital image sensors and projectors.

<span class="mw-page-title-main">Barrier-grid animation and stereography</span> Animation method

Barrier-grid animation or picket-fence animation is an animation effect created by moving a striped transparent overlay across an interlaced image. The barrier-grid technique originated in the late 1890s, overlapping with the development of parallax stereography (Relièphographie) for 3D autostereograms. The technique has also been used for color-changing pictures, but to a much lesser extent.

An anorthoscope is a device that demonstrates an optical illusion that turns an anamorphic picture on a disc into a normal image by rotating it behind a counter-rotating disk with four radial slits. It was invented in 1829 by Belgian physicist Joseph Plateau, whose further studies of the principle led him to the 1832 invention of a stroboscopic animation that would become known as the phénakisticope.

References

  1. Bretèque, François Amy de la (2013-04-01). "Marc Azéma, La Préhistoire du cinéma. Origines paléolithiques de la narration graphique et du cinématographe. Paris, Errance, 2011". 1895. Mille Huit Cent Quatre-vingt-quinze (in French) (69): 169–172. doi: 10.4000/1895.4624 . ISSN   0769-0959.
  2. Buchan, Suzanne (2013). Pervasive Animation. Routledge. p. 63. ISBN   9781136519550.
  3. Canales, Jimena (2010-01-15). A Tenth of a Second: A History. University of Chicago Press. ISBN   9780226093208.
  4. Giannalberto Bendazzi (2015). Animation: A World History. CRC Press. p. 7. ISBN   9781317520849.
  5. Thomas 1958, p. 8.
  6. 1 2 Azéma, Marc (September 2, 2015). La Préhistoire du cinéma: Origines paléolithiques de la narration graphique et du cinématographe. Éd. errance. ISBN   9782877725576 via Google Books.
  7. Zorich, Zach (March 27, 2014). "Early Humans Made Animated Art". Nautilus.
  8. Sakamoto, Takashi; Pettitt, Paul; Ontañon-Peredo, Roberto (October 2020). "Upper Palaeolithic Installation Art: Topography, Distortion, Animation and Participation in the Production and Experience of Cantabrian Cave Art". Cambridge Archaeological Journal. 30 (4): 665–688. doi:10.1017/S0959774320000153. ISSN   0959-7743. S2CID   219518658.
  9. Prudhommeau, Germaine (February 1956). "À l'origine du dessin animé". Image et Son (89).
  10. Azéma, Marc; Rivère, Florent (2012). "Animation in Palaeolithic art: a pre-echo of cinema" (PDF). Antiquity. 86 (332). Cambridge University Press (CUP): 316–324. doi:10.1017/s0003598x00062785. ISSN   0003-598X. S2CID   162012454.
  11. National Museum of Iran, inventory number 13261, "Late half of 3rd Mill. BC", see: https://commons.wikimedia.org/wiki/File:Animated_vase_information_panel_-_Shar-e_Soukhteh_-_3rd_millennium_BC_-_National_museum_of_Iran_-_Inventory_number_13261.JPG
  12. Ball 2008.
  13. Cohn 2006.
  14. "Egypt Thomb". Lessing Photo. 2011-02-15.
  15. Bendazzi, Giannalberto (2015-10-23). Animation: A World History: Volume I: Foundations - the Golden Age. CRC Press. ISBN   9781317520832.
  16. "(PDF) Classical Moments--Time in the Parthenon Frieze | Jenifer Neils - Academia.edu".
  17. Wade, Nicholas J. (January 31, 2000). A Natural History of Vision. MIT Press. ISBN   9780262731294 via Google Books.
  18. Plateau, Joseph (August 23, 1827). Notices via Google Books.
  19. Sigenot (in German). Stuttgart: Workshop Ludwig Henfflin. 1470.
  20. "South West Grid for Learning Trust: The muscles of the shoulder, arm and neck". gallery.nen.gov.uk.
  21. Needham 1962, pp. 123–124.
  22. Rojas 2013, p. 5.
  23. Yongxiang Lu (2014-10-20). A History of Chinese Science and Technology, Volume 3. Springer. pp. 308–310. ISBN   9783662441633.
  24. Huygens, Christiaan. "Pour des representations par le moyen de verres convexes à la lampe" (in French).
  25. Rossell, Deac (2005). The Magic Lantern and Moving Images before 1800.
  26. "Magic lantern - collection of moving magic lantern slides part 1". Luikerwaal.
  27. 1 2 3 Heard, Mervyn. Phantasmagoria: The Secret History of the Magic Lantern. The Projection Box, 2006
  28. "Luikerwaal - Mechanical Slides".
  29. The Spectator. 1835-07-18. p. 13.
  30. The Athenæum. 1845-01-04.
  31. "Luikerwaal - Fantoccini Slides".
  32. J.M. (1820-12-01). Account of an optical deception.
  33. Roget, Peter Mark (1824-12-09). Explanation of an optical deception in the appearance of the spokes of a wheel when seen through vertical apertures.
  34. Herbert, Stephen. "The Thaumatrope". Wheel of Life.
  35. Belgique, Académie Royale des Sciences, des Lettres et des Beaux-Arts de (1849). Bulletins de l'Académie Royale des Sciences, des Lettres et des Beaux-Arts de Belgique (in French). Hayez.{{cite book}}: CS1 maint: multiple names: authors list (link)
  36. Stampfer, Simon (1833). Die stroboscopischen Scheiben; oder, Optischen Zauberscheiben: Deren Theorie und wissenschaftliche Anwendung.
  37. The London and Edinburgh Philosophical Magazine and Journal of Science. 1834. p. 36.
  38. Herbert, Stephen. "From Daedaleum to Zoetrope (Part 1)". Wheel of Life.
  39. Colman's rural world. December 15, 1866. p. 366.
  40. Herbert, Stephen. (n.d.) From Daedaleum to Zoetrope, Part 2. Retrieved 2014-05-31.
  41. McDonough, John; Egolf, Karen (2015). The Advertising Age Encyclopedia of Advertising. Routledge. p. 81. ISBN   9781135949068 . Retrieved 2 July 2018.
  42. Chronological Index of Patents Applied for and Patents Granted. G.E. Eyre and W. Spottiswoode. 1869. p. 65. Retrieved 2 July 2018.
  43. Crafton 1993, p. 7.
  44. "Le Praxinoscope". emilereynaud.fr (in French). Retrieved 2019-07-25.
  45. "Le Praxinoscope à projection". emilereynaud.fr (in French). Retrieved 2019-07-25.
  46. "COMPLEAT EADWEARD MUYBRIDGE - ZOOPRAXISCOPE STORY". www.stephenherbert.co.uk. Retrieved 2019-07-25.
  47. Thames, The Royal Borough of Kingston upon. "Eadweard Muybridge". www.kingston.gov.uk. Archived from the original on 2019-02-24. Retrieved 2019-07-25.
  48. "KODAK FILM HISTORY | Chronology of Motion Picture Films - 1889 to 1939" (PDF). aipcinema.com. Archived from the original (PDF) on May 15, 2013. Retrieved December 7, 2018.
  49. Lutz, Edwin George (1920). Animated cartoons; how they are made, their origin and development. Cornell University Library. New York, C. Scribner's sons.

Works cited