Television is a telecommunication medium that transmits moving images and sound. The term can refer to the transmission medium or the physical television set itself. It serves as a mass medium for various content, including advertising, entertainment, news, and sports. Unlike radio broadcasting, which only transmits audio, television transmits both audio and visual signals.
In August 1900, during the first International Congress of Electricity at the International World Fair in Paris, the Russian scientist Constantin Perskyi used the word 'television' in a paper he presented, marking the first documented usage of the term.
In 1904, "televista" was proposed as a name for the hypothetical technology for sending pictures over distance.
In 1906, Max Dieckmann and Gustav Glage produced raster images for the first time using a CRT.
As early as 1907, Hovannes Adamian experimented with color television.
In 1907, Russian scientist Boris Rosing used a CRT in the receiving end of an experimental video signal to form a picture, displaying simple geometric shapes onto the screen.
In 1907, developments in amplification tube technology by Lee de Forest and Arthur Korn, among others, made the design of television practical.
In 1907, the anglicized version of the term "television" was first attested. At this time, it was considered a theoretical system for transmitting moving images over telegraph or telephone wires, formed in English or borrowed from French télévision.
On March 31, 1908, Hovannes Adamian patented a color television project in Germany, patent No. 197183.
On April 1, 1908, Hovannes Adamian patented a color television project in Britain, patent No. 7219.
In 1908, Alan Archibald Campbell-Swinton published a letter in Nature describing how "distant electric vision" could be achieved using a cathode-ray tube (Braun tube) as both a transmitting and receiving device.
In 1909, Georges Rignoux and A. Fournier demonstrated the live transmission of images in Paris. They used a matrix of 64 selenium cells wired to a mechanical commutator as an electronic retina. The 8x8 pixel resolution was sufficient to transmit individual letters of the alphabet.
In 1910, Hovannes Adamian patented a color television project in Russia, patent No. 17912.
In 1911, Alan Archibald Campbell-Swinton expanded on his vision for achieving "distant electric vision" in a speech given in London. This was reported in The Times and the Journal of the Röntgen Society.
In 1911, Boris Rosing and his student Vladimir Zworykin created a system that used a mechanical mirror-drum scanner to transmit "very crude images" over wires to a cathode-ray tube (CRT) in the receiver. Moving images were not possible due to limitations in sensitivity and the selenium cell's lag.
In 1913, U.S. inventor Charles Francis Jenkins published an article on "Motion Pictures by Wireless", marking an early contribution to the field of wireless image transmission.
Before March 1914, Campbell-Swinton, G. M. Minchin, and J. C. M. Stanton conducted experiments to generate an electrical signal by projecting an image onto a selenium-coated metal plate scanned by a cathode ray beam.
In 1921, Édouard Belin achieved a milestone by sending the first image via radio waves using his belinograph.
On March 13, 1922, Charles Francis Jenkins filed U.S. Patent No. 1,544,156 for "Transmitting Pictures over Wireless," which was later granted on 30 June 1925.
In 1922, the first cathode-ray tube to use a hot cathode was developed by John B. Johnson and Harry Weiner Weinhart of Western Electric and became a commercial product.
In December 1923, Charles Francis Jenkins transmitted moving silhouette images for witnesses, demonstrating early progress in television technology.
In 1923, Vladimir Zworykin began developing an electronic camera tube while working for Westinghouse Electric.
In 1924, Kálmán Tihanyi began developing charge-storage technology to address the problem of low sensitivity to light in transmitting tubes.
On March 25, 1925, John Logie Baird gave the first public demonstration of televised silhouette images in motion at Selfridges's department store in London. He televised a ventriloquist's dummy named "Stooky Bill".
On June 13, 1925, Charles Francis Jenkins publicly demonstrated synchronized transmission of silhouette pictures.
In 1925, Dieckmann and Hell submitted a patent application in Germany for their Lichtelektrische Bildzerlegerröhre für Fernseher (Photoelectric Image Dissector Tube for Television).
In 1925, a demonstration of Vladimir Zworykin's electronic camera tube produced a dim image with low contrast and poor definition.
In 1925, in the Soviet Union, Leon Theremin started developing a mirror drum-based television, starting with 16 lines resolution.
On January 26, 1926, John Logie Baird demonstrated the transmission of an image of a face in motion by radio before members of the Royal Institution. This is widely regarded as the world's first true public television demonstration, exhibiting light, shade, and detail.
In March 1926, Hungarian engineer Kálmán Tihanyi filed a patent application in Hungary for a television system he called "Radioskop".
On May 7, 1926, Leon Theremin electrically transmitted and then projected near-simultaneous moving images on a 5-square-foot screen as part of his thesis.
In October 1926, Campbell-Swinton announced in a letter to Nature the results of some "not very successful experiments" with G. M. Minchin and J. C. M. Stanton where they attempted to generate an electrical signal by projecting an image onto a selenium-coated metal plate scanned by a cathode ray beam.
On 25 December 1926, at Hamamatsu Industrial High School in Japan, Japanese inventor Kenjiro Takayanagi demonstrated a TV system with a 40-line resolution that employed a CRT display.
On December 25, 1926, Kenjiro Takayanagi demonstrated a television system with a 40-line resolution that employed a Nipkow disk scanner and CRT display at Hamamatsu Industrial High School in Japan.
On April 7, 1927, Herbert E. Ives and Frank Gray of Bell Telephone Laboratories gave a dramatic demonstration of mechanical television, showcasing both small and large viewing screens with synchronized sound. The telecast included Secretary of Commerce Herbert Hoover. The scanner disc revolved at a rate of 18 frames per second.
On 7 September 1927, U.S. inventor Philo Farnsworth's image dissector camera tube transmitted its first image, a simple straight line, at his laboratory in San Francisco.
Based on Vladimir Zworykin's 1923 patent application, RCA asserted that the patent for Philo Farnsworth's 1927 image dissector was written so broadly that it would exclude any other electronic imaging device and filed a patent interference suit against Farnsworth.
By 1927, Leon Theremin had achieved an image of 100 lines resolution with his television system.
In 1927, John Logie Baird transmitted a television signal over 438 miles (705 km) of telephone line between London and Glasgow.
In 1927, the term 'TV' began to be used to mean 'television as a medium'.
In January 1928, WRGB claims its roots to an experimental television station W2XB were founded on January 13, 1928, broadcasting from the General Electric factory in Schenectady, NY. It was popularly known as "WGY Television" after its sister radio station.
On July 3, 1928, John Logie Baird demonstrated the world's first color transmission, using scanning discs at the transmitting and receiving ends with three spirals of apertures, each spiral with filters of a different primary color.
On August 10, 1928, John Logie Baird demonstrated stereoscopic 3D television for the first time at his company's premises in London. He pioneered various 3D television systems using electromechanical and cathode-ray tube techniques.
By 3 September 1928, Philo Farnsworth had developed his television system sufficiently to hold a demonstration for the press, widely regarded as the first electronic television demonstration.
In 1928, Baird's company (Baird Television Development Company/Cinema Television) broadcast the first transatlantic television signal between London and New York and the first shore-to-ship transmission.
In 1928, Kálmán Tihanyi made further refinements to his patent application for his television system.
In 1928, Vladimir Zworykin received a patent for a color transmission version of his 1923 patent application.
In 1928, WRGB, then W2XB, started as the world's first television station broadcasting from the General Electric facility in Schenectady, NY. It was popularly known as "WGY Television."
In June 1929, Bell Laboratories demonstrated mechanically scanned color television using three complete systems of photoelectric cells, amplifiers, glow-tubes, and color filters.
In 1929, John Logie Baird became involved in the first experimental mechanical television service in Germany. In November of the same year, Baird and Bernard Natan of Pathé established France's first television company, Télévision-Baird-Natan.
In 1929, Philo Farnsworth improved his television system by eliminating a motor generator, and transmitted the first live human images with his system, including an image of his wife Elma with her eyes closed.
In 1930, Kálmán Tihanyi's patent was declared void in Great Britain, leading him to apply for patents in the United States.
In 1930, Philo Farnsworth began work on a completely unique "Multipactor" device.
At the Berlin Radio Show in August 1931, Manfred von Ardenne gave a public demonstration of a television system using a CRT for both transmission and reception, the first completely electronic television transmission.
In 1931, John Logie Baird achieved a technological first by making the first outdoor remote broadcast of The Derby.
In 1931, Kálmán Tihanyi's breakthrough was incorporated into the design of RCA's "iconoscope".
In 1931, Mexican inventor Guillermo González Camarena began his experiments with television (known as telectroescopía at first).
In 1931, Philo Farnsworth demonstrated his "Multipactor" device, a small tube that could amplify a signal reportedly to the 60th power or better.
In 1931, Vladimir Zworykin divided his original patent application.
In May 1932, RCA achieved 120 lines of resolution, surpassing Theremin's previous achievement of 100 lines.
In 1932, John Logie Baird demonstrated ultra-short wave television, marking another advancement in the field.
In 1932, the EMI engineering team led by Isaac Shoenberg applied for a patent for a new device they called "the Emitron", which formed the heart of the cameras they designed for the BBC.
On 24 December 1933, Manfred von Ardenne achieved his first transmission of television pictures.
By 1933, the image quality of 30-line transmissions steadily improved with technical advances, and the UK broadcasts using the Baird system were remarkably clear.
In 1933, RCA introduced an improved camera tube that relied on Tihanyi's charge storage principle, called the "Iconoscope" by Zworykin. The new tube had a light sensitivity of about 75,000 lux.
On 25 August 1934, Philo Farnsworth gave the world's first public demonstration of an all-electronic television system, using a live camera, at the Franklin Institute of Philadelphia and for ten days afterward.
In 1934, Manfred von Ardenne conducted test runs for a public television service.
In 1934, Vladimir Zworykin shared some patent rights with the German licensee company Telefunken, leading to the production of the "image iconoscope".
In 1934, the EMI team, under the supervision of Isaac Shoenberg, developed and patented two new camera tubes dubbed super-Emitron and CPS Emitron.
In 1935, Compagnie des Compteurs (CDC) installed a 180-line system in Paris, and Peck Television Corp. started a 180-line system at station VE9AK in Montreal.
In 1935, the U.S. Patent Office examiner found priority of invention for Farnsworth against Zworykin, disagreeing with RCA's assertion.
In 1935, the first 3D television was produced, marking an early milestone in the development of 3D television technology.
In 1935, the world's first electronically scanned television service started in Berlin, the Fernsehsender Paul Nipkow.
On 2 November 1936, a 405-line broadcasting service employing the Emitron began at studios in Alexandra Palace and transmitted from a specially built mast atop one of the Victorian building's towers.
On November 2, 1936, the BBC began transmitting the world's first public regular high-definition television service from Alexandra Palace in north London. This marked a significant milestone in the history of television broadcasting.
From 1936, the image iconoscope (Superikonoskop) became the industrial standard for public broadcasting in Europe.
In 1936, Baird's mechanical television system reached a peak of 240 lines of resolution on BBC telecasts, using a process where a 17.5 mm film was shot, rapidly developed, and then scanned while still wet.
In 1936, Kálmán Tihanyi described the principle of plasma display, the first flat-panel display system.
In 1936, the Fernsehsender Paul Nipkow culminated in the live broadcast of the Summer Olympic Games from Berlin to public places all over Germany.
In 1937, the Campbell-Swinton experiments were repeated by two different teams: H. Miller and J. W. Strange from EMI, and H. Iams and A. Rose from RCA. Both teams successfully transmitted "very faint" images using the original Campbell-Swinton's selenium-coated plate.
On Armistice Day 1937, the BBC used the super-Emitron for outside broadcasting for the first time, broadcasting a live street scene of the King laying a wreath at the Cenotaph.
On February 4, 1938, John Logie Baird made the world's first color broadcast, sending a mechanically scanned 120-line image from Baird's Crystal Palace studios to a projection screen at London's Dominion Theatre.
In May 1939, the U.S. patent for Kálmán Tihanyi's transmitting tube was granted. RCA had purchased the patent prior to its approval.
In September 1939, RCA agreed to pay the Farnsworth Television and Radio Corporation royalties over the next ten years for access to Farnsworth's patents.
In 1939, Farnsworth and RCA broadcast a live street scene for the first time at the New York World's Fair.
In 1939, Hungarian engineer Peter Carl Goldmark introduced an electro-mechanical system while at CBS, which contained an Iconoscope sensor.
In 1939, the last mechanical telecasts ended at stations run by a lot of public universities in the United States.
CBS began experimental color field tests using film as early as August 28, 1940 and live cameras by 12 November.
On August 29, 1940, CBS first demonstrated its field-sequential color system to the Federal Communications Commission (FCC) and shown to the press on September 4.
As early as 1940, Baird had started work on a fully electronic system he called Telechrome.
From 1940, the German company Heimann produced and commercialized the Superikonoskop.
In 1940, John Logie Baird publicly demonstrated a hybrid color television, combining a traditional black-and-white display with a rotating colored disk.
In 1940, Mexican inventor Guillermo González Camarena patented the "trichromatic field sequential system" color television.
On February 20, 1941, NBC (owned by RCA) made its first field test of color television.
On June 1, 1941, CBS began daily color field tests. These color systems were not compatible with existing black-and-white television sets.
In July 1941, the Federal Communications Commission (FCC) in the U.S. allowed television stations to broadcast advertisements. However, they required public service programming commitments as a condition for a license.
On 1 July 1941, the first official, paid television advertisement was broadcast in the United States over New York station WNBT (now WNBC) before a baseball game. The announcement was for Bulova watches, and the company paid from $4.00 to $9.00. It displayed a WNBT test pattern modified to look like a clock with the hands showing the time, along with the Bulova logo and the phrase "Bulova Watch Time."
In 1941, the United States implemented 525-line television, agreeing upon standards and deals made between competing markets and technologies. Electrical engineer Benjamin Adler played a prominent role in the development of television.
In 1941, the term 'TV' began to be used to mean 'a television set'.
Since its inception in the US in 1941, television commercials have become one of the most effective, persuasive, and popular methods of selling products of many sorts, especially consumer goods. During the 1940s and into the 1950s, programs were hosted by single advertisers, giving advertisers creative control over the show's content.
From April 22, 1942 to August 20, 1945, the War Production Board halted the manufacture of television and radio equipment for civilian use.
A demonstration on 16 August 1944 was the first example of a practical color television system.
As early as 1944, Baird had commented to a British government committee that a fully electronic device would be better than his hybrid design.
In 1944, the world's first 625-line television standard was designed in the Soviet Union.
From April 22, 1942 to August 20, 1945, the War Production Board halted the manufacture of television and radio equipment for civilian use.
In October 1945, British science fiction writer Arthur C. Clarke proposed a worldwide communications system using three equally spaced satellites in Earth orbit. This was published in Wireless World magazine.
Baird's untimely death in 1946 ended the development of the Telechrome system.
In 1946, the world's first 625-line television standard became a national standard in the Soviet Union.
In 1948, cable television emerged in areas where over-the-air reception was limited due to distance or terrain. Large "community antennas" were constructed, and cable was run to individual homes.
In 1948, the abbreviation 'TV' was first used as a shorthand for television.
In 1948, the first broadcast in 625-line standard occurred in Moscow.
From 1952, the Dutch company Philips produced and commercialized the image iconoscope and multicon.
In 1952, Sony founder Masaru Ibuka predicted that the transition to electronic circuits made of transistors would lead to smaller and more portable television sets.
On 28 August 1953, the first television advertisement in Asia was broadcast on Nippon Television in Tokyo. The advertisement was for Seikosha (now Seiko) and displayed a clock with the current time.
After 1953, the addition of color to broadcast television further increased the popularity of television sets, and an outdoor antenna became a common feature of suburban homes.
On July 8, 1954, the first color broadcast (the first episode of the live program The Marriage) occurred.
On 22 September 1955, the first television advertisement in the U.K. was broadcast on ITV. The advertisement was for Gibbs SR toothpaste.
In 1955, Heimann ceased production of the Superikonoskop.
In 1957, "Compatible Color," featured in RCA advertisements of the period, is mentioned in the song "America," of West Side Story.
In 1958, Philips ceased production of the image iconoscope and multicon.
In 1959, Sony developed the 8-inch Sony TV8-301, the first fully transistorized, portable solid-state television set.
In 1960, Sony released the 8-inch Sony TV8-301, the first fully transistorized, portable solid-state television set. By 1960, Sony had sold over 4 million portable television sets worldwide, transforming television viewership from a communal to a solitary experience.
In 1960, the image iconoscope (Superikonoskop) was replaced by the vidicon and plumbicon tubes.
On July 23, 1962, the first satellite television signals from Europe to North America were relayed via the Telstar satellite over the Atlantic Ocean. The signals were received and broadcast in North American and European countries, watched by over 100 million people.
On July 26, 1963, the first geosynchronous communication satellite, Syncom 2, was launched, marking a significant advancement in satellite communication technology.
In 1963, Arthur C. Clarke won the Franklin Institute's Stuart Ballantine Medal for his 1945 proposal of a worldwide communications system using satellites.
On April 6, 1965, the world's first commercial communications satellite, Intelsat I, nicknamed "Early Bird", was launched into geosynchronous orbit, marking a key milestone in satellite communications.
In 1965, it was announced that over half of all network prime-time programming would be broadcast in color that fall, starting the color transition of television broadcasts.
In the spring of 1966, GE introduced the relatively compact and lightweight Porta-Color set, which used a transistor-based UHF tuner.
In October 1967, the Soviet Union created the first national network of television satellites, called Orbita. It was based on using the highly elliptical Molniya satellite for rebroadcasting and delivering television signals.
Color broadcasting in Europe was not standardized on the PAL format until the 1960s, and broadcasts did not start until 1967.
In 1967, the first fully transistorized color television in the United States was the Quasar television.
On November 9, 1972, Canada launched Anik 1, the first commercial North American satellite to carry television transmissions. It was a geostationary satellite.
In 1972, sales of color sets finally surpassed sales of black-and-white sets.
In 1972, the last holdout among daytime network programs converted to color, resulting in the first completely all-color network season.
On May 30, 1974, ATS-6, the world's first experimental educational and Direct Broadcast Satellite (DBS), was launched. It transmitted at 860 MHz using wideband FM modulation and had two sound channels, primarily focused on the Indian subcontinent.
On October 26, 1976, Ekran 1, the first in a series of Soviet geostationary satellites to carry Direct-To-Home television, was launched. It used a 714 MHz UHF downlink frequency.
By 1979, even the last of the stations broadcasting in black-and-white had converted to color.
In 1983, the Australian Broadcasting Corporation Act was enacted, which banned advertising by external sources on the ABC's television services and ensured its editorial independence.
William F. Schreiber was director of the Advanced Television Research Program at the Massachusetts Institute of Technology from 1983 until his retirement in 1990.
In 1987, Digital Light Processing (DLP) technology, which uses a digital micromirror device, was originally developed by Dr. Larry Hornbeck of Texas Instruments.
In March 1990, when it became clear that a digital standard was possible, the FCC declared that the new ATV standard must be more than an enhanced analog signal but be able to provide a genuine HDTV signal with at least twice the resolution of existing television images.
Until June 1990, the Japanese MUSE standard, based on an analog system, was the front-runner among the more than 23 other technical concepts under consideration. Then, a U.S. company, General Instrument, demonstrated the possibility of a digital television signal. This breakthrough was of such significance that the FCC was persuaded to delay its decision on an ATV standard until a digitally-based standard could be developed.
William F. Schreiber, who was director of the Advanced Television Research Program at the Massachusetts Institute of Technology from 1983 until his retirement in 1990.
In 1994, the first patent was filed for an "intelligent" television system linked with data processing systems, using a digital or analog network. The system was designed to automatically download necessary software routines according to a user's demand and process their needs.
Since 1996, under the Howard government, the Australian Broadcasting Corporation has suffered progressive funding cuts.
In 1997, While the DLP imaging device was invented by Texas Instruments, the first DLP-based projector was introduced by Digital Projection Ltd.
In 1998, Digital Projection and Texas Instruments were both awarded Emmy Awards for the invention of the DLP projector technology. This recognized the significant contribution of DLP to display technology.
In 2007, LCD television sets surpassed sales of CRT-based television sets worldwide for the first time. Their sales figures relative to other technologies accelerated, marking LCDs as the dominant technology.
The global TV market's total revenues declined by 1.2% in 2008, compared to 2009, representing 1,217.2 million TV households with at least one TV.
As of 2009, two main BBC TV channels were watched by almost 90% of the population each week and overall had 27% share of total viewing, despite the fact that 85% of homes were multi-channel.
In 2009, the global TV market represented 1,217.2 million TV households with at least one TV and total revenues of 268.9 billion EUR, which declined 1.2% compared to 2008. North America had the biggest TV revenue market share with 39%, followed by Europe (31%), Asia-Pacific (21%), Latin America (8%), and Africa and the Middle East (2%). Globally, the different TV revenue sources are divided into 45–50% TV advertising revenues, 40–45% subscription fees, and 10% public funding.
Around 2010, a slight increase in antenna use began due to the switchover to digital terrestrial television broadcasts. This offered improved image quality and an alternative to cable for cord-cutters.
As of 2010, there were approximately 25 million TV licences in all premises in force in the UK.
In 2010, 3D television shipments reached a total of 2.26 million units, showing the initial adoption of 3D television sets.
In 2010, digital television transmissions greatly increased in popularity. High-definition television (HDTV) became more common, offering higher resolution than standard-definition television (SDTV). Smart televisions and Internet television also gained traction, increasing the availability of television programs and movies via the Internet through streaming video services like Netflix, Amazon Prime Video, iPlayer, and Hulu.
In 2011, 3D television shipments reached a total of 24.14 million units, showing an increase compared to previous years.
In 2011, North American consumers purchased a new television set on average every seven years, and the average household owned 2.8 televisions. Around 48 million televisions were sold each year at an average price of $460 and a size of 38 inches.
On 17 October 2012, the Consumer Electronics Association announced that "Ultra High Definition," or "Ultra HD," would be used for displays that have an aspect ratio of at least 16:9 and at least one digital input capable of carrying and presenting natural video at a minimum resolution of 3840×2160 pixels.
As of 2012, it was estimated that approximately 26.8 million UK private domestic households owned televisions.
In 2012, 3D television shipments reached a total of 41.45 million units, showing an increase compared to previous years. This indicates a peak in the popularity and adoption of 3D television sets.
As of late 2013, the number of 3D TV viewers started to decline. This indicates a shift in consumer preferences and a decrease in the popularity of 3D television.
In 2013, it was estimated that about 7% of US households used an antenna for television reception. This signifies a decline in the use of terrestrial television broadcasts due to the widespread adoption of cable.
In 2013, it was reported that 79% of the world's households owned a television set, marking a significant milestone in television adoption. Flat-screen TVs decisively overtook CRT in the early 2010s.
In 2013, the video on demand website Netflix earned its first Primetime Emmy Award nominations for original streaming television at the 65th Primetime Emmy Awards. Three of its series, House of Cards, Arrested Development, and Hemlock Grove, earned nominations that year.
As of 2014, alternative display technologies such as OLEDs, FED and SED had not yet entered widespread production, despite addressing weaknesses of LCDs.
In 2014, the Australian Broadcasting Corporation experienced particularly deep funding cuts under the Turnbull government.
In January 2015, Dish Network unveiled Sling TV, a service that provides traditional cable and satellite television content over the internet.
On July 13, 2015, cable company Comcast announced an HBO plus broadcast TV package at a price discounted from basic broadband plus basic cable.
As of 2015, TV tip-overs were responsible for more than 10,000 injuries per year to children in the United States, at a cost of more than US$8 million per year.
In 2015, major TV manufacturers announced the production of smart TVs, but only for middle-end and high-end TVs. This marked a step in making smart TVs more accessible, although initially limited to higher-priced models.
In 2016, DirecTV, another satellite television provider, launched their own streaming service, DirecTV Stream, offering similar services.
A 2017 study in The Journal of Human Resources found that exposure to cable television reduced cognitive ability and high school graduation rates for boys, especially those from more educated families, because it crowds out more cognitively stimulating activities.
In 2017, YouTube launched YouTube TV, a streaming service that allows users to watch live television programs and record shows. Also, 28% of US adults cite streaming services as their main means for watching television.
In 2018, Netflix became the world's largest streaming TV network and the world's largest Internet media and entertainment company with 117 million paid subscribers.
As of 2019, 46 million U.S. households had at least one smart TV. This indicates that smart TVs have become more affordable and popular, reaching a significant portion of households in the United States.
In 2020, the COVID-19 pandemic significantly impacted the television streaming business due to lifestyle changes such as staying at home and lockdowns.
As of June 2021, the licence that funds the advertising-free BBC TV channels cost £159 for a colour TV Licence and £53.50 for a black and white TV Licence (free or reduced for some groups).
As of 2021, the Australian Broadcasting Corporation is experiencing an ongoing indexation freeze.
As of 2024, TV tip-overs were responsible for more than 10,000 injuries per year to children in the United States, with emergency care costs reaching US$10.61 million per year.
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