10 Reasons Why Tesla Is a Scientific God
10
Reasons Why Tesla Is a Scientific God
Image Gallery: Famous Scientists
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History, they say, is written by the victors, but that's cold comfort to the men and women x-ed out by the editor's pen. For years, science textbooks equated electricity and light with one man, Thomas Edison, while the genius whose pioneering electrical technologies truly power the modern world languished as a minor note in scientific history, sandwiched between Edward Teller and Thales of Miletus.
Before the turn of the 20th century, electricity remained a mere scientific curiosity -- one that many doubted would ever do an honest day's work. Nikola Tesla, arguably more than anyone else, changed that, but his pioneering research in electricity represents only a portion of the scientific and technical innovations that elevated him to science godhood.
Tesla not only expanded and revolutionized the work of his predecessors; he also leapfrogged ahead of his contemporaries to the next step, and the next. But, just as it takes more than groundbreaking music to give rise to a rock god, we think it takes more than innovative breakthroughs and amazing machines to make a scientific one. We'd argue that such a figure must also possess intriguing facets -- qualities like eccentricity, vision and the will to suffer for science. Nikola Tesla was such a man.
Before the turn of the 20th century, electricity remained a mere scientific curiosity -- one that many doubted would ever do an honest day's work. Nikola Tesla, arguably more than anyone else, changed that, but his pioneering research in electricity represents only a portion of the scientific and technical innovations that elevated him to science godhood.
Tesla not only expanded and revolutionized the work of his predecessors; he also leapfrogged ahead of his contemporaries to the next step, and the next. But, just as it takes more than groundbreaking music to give rise to a rock god, we think it takes more than innovative breakthroughs and amazing machines to make a scientific one. We'd argue that such a figure must also possess intriguing facets -- qualities like eccentricity, vision and the will to suffer for science. Nikola Tesla was such a man.
10
He Saw the Potential
Ahead of His Time: Military Meddling
Before America's involvement in World War I, Tesla outlined a means of detecting enemy ships and submarines using electromagnetic induction. Induction is the process by which a changing magnetic field instills an electric current in a metallic object located within it. The reverse is also true, so currents inducted in the skin of a nearby submarine, for example, would create their own magnetic fields, which would "push back" against, or dampen, the original field, theoretically rendering the sub detectable.
In an era when the dollar was king, in which scientists and engineers built business empires on the backs of one or two breakthroughs, Tesla's focus never strayed from his work. Consequently, he was both prolific and, at times, poor.
While his competitors in the War of the Currents -- the struggle between Tesla's and Edison's camps over whose electrical technology would reign supreme -- fought tooth-and-nail to secure electrical monopolies, his desire to acquire funding for his next big project repeatedly trumped his interest in protecting his patents and inventions [sources: Cheney; Jonnes].
Tesla's focus and farsightedness worked to the inventor's detriment almost as much as they benefited society. Unlike Edison, he did not actively cultivate a reputation with the public, wield the press for publicity (or to launch attacks) or possess a strong business standing. More to the point, his work delved into realms beyond the grasp of many of his contemporaries. Consequently, Tesla struggled to gain funding to support his research [sources: Jonnes; PBS; Secor]. For example, Tesla suggested bouncing high-frequency electrical waves off the hulls of ships and subs made of nonferrous and nonconducting materials. The Navy passed on funding his research [sources: PBS; Secor].
While his competitors in the War of the Currents -- the struggle between Tesla's and Edison's camps over whose electrical technology would reign supreme -- fought tooth-and-nail to secure electrical monopolies, his desire to acquire funding for his next big project repeatedly trumped his interest in protecting his patents and inventions [sources: Cheney; Jonnes].
Tesla's focus and farsightedness worked to the inventor's detriment almost as much as they benefited society. Unlike Edison, he did not actively cultivate a reputation with the public, wield the press for publicity (or to launch attacks) or possess a strong business standing. More to the point, his work delved into realms beyond the grasp of many of his contemporaries. Consequently, Tesla struggled to gain funding to support his research [sources: Jonnes; PBS; Secor]. For example, Tesla suggested bouncing high-frequency electrical waves off the hulls of ships and subs made of nonferrous and nonconducting materials. The Navy passed on funding his research [sources: PBS; Secor].
9
He Dreamed Big
The Big Blue Battery?
As Tesla studied high-frequency electricity, his growing fascination with transmitting energy wirelessly led him to invent the Tesla coil – a transformer capable of producing high-frequency alternating current -- as well as radio [sources: Cheney and Uth; Jonnes; PBS]. When he discovered that the Earth itself might transmit energy, he planned to build stations capable of powering the entire world [source: Jonnes].
Like any world-changing inventor, Tesla was a man of vision, and his career ran most smoothly when he could convey that vision to other pioneers. In 1893, his alternating current beat out Edison's direct current proposal to light the monumental World's Columbian Exposition in Chicago (aka the Chicago World's Fair). Not only did this event mark a turning point in the War of the Currents, it also enabled him to follow his grandest ambitions, including his childhood dream of harnessing the power of Niagara Falls [sources: Cheney and Uth; Jonnes; PBS].
Even after he'd won the Niagara contract, most of his backers remained dubious about whether Tesla's hydroelectric machines would work. The inventor did not. When the switch was thrown at midnight, Nov. 16, 1896, lights turned on in Buffalo, N.Y., 21 miles (34 kilometers) away. Within a few years, the station expanded its reach to New York City, roughly 400 miles (644 kilometers) away [sources: Cheney and Uth; Jonnes; PBS]. Tesla's youthful dream had come true.
Tesla also proposed controlling, or at least catalyzing, weather with electricity. He visualized transmitting power globally and, with it, information -- an early version of a global wireless communications system [sources: Cheney and Uth; PBS]. The scientist told investor J.P. Morgan, "When wireless is fully applied the Earth will be converted into a huge brain, capable of response in every one of its parts" [source: PBS].
Even after he'd won the Niagara contract, most of his backers remained dubious about whether Tesla's hydroelectric machines would work. The inventor did not. When the switch was thrown at midnight, Nov. 16, 1896, lights turned on in Buffalo, N.Y., 21 miles (34 kilometers) away. Within a few years, the station expanded its reach to New York City, roughly 400 miles (644 kilometers) away [sources: Cheney and Uth; Jonnes; PBS]. Tesla's youthful dream had come true.
Tesla also proposed controlling, or at least catalyzing, weather with electricity. He visualized transmitting power globally and, with it, information -- an early version of a global wireless communications system [sources: Cheney and Uth; PBS]. The scientist told investor J.P. Morgan, "When wireless is fully applied the Earth will be converted into a huge brain, capable of response in every one of its parts" [source: PBS].
8
Two Words: Death Ray
Charged Particle Beams
A charged particle beam (CPB) is a directed-energy weapon that fires pulses of charged particles to heat and potentially explode a target. Theoretically, such a weapon could reach a target almost instantly and at enormous range, delivering lethal doses of energy in seconds or less. However, the technical challenges involved in building a beam like this -- especially one capable of firing in the atmosphere -- remain daunting [source: Roberds].
Oh, we're sorry, did we say "death ray"? We meant "peace beam that can knock airplanes out of the sky hundreds of miles away and give infantry a very, very bad day."
Amid the gathering clouds of World War II, Tesla announced that he had conceived a new "peace beam" weapon capable of ending war forever. He saw his device, which we now know as a charged particle beam, as a kind of "Chinese wall," an anti-war device that would safeguard national borders. The papers took a different view: "TESLA, AT 78, BARES NEW 'DEATH BEAM'" blared The New York Times' front page on July 11, 1934.
The possibility of a world power developing a particle beam haunted the Cold War, especially after some of Tesla's papers went missing following his death [sources: Cheney and Uth; Jonnes; PBS; PBS].
CPBs were made famous by Reagan's Strategic Defense Initiative, or Star Wars, program, but the U.S. Defense Advanced Research Projects Agency (DARPA) was investigating them as early as 1958 [source: Roberds].
Amid the gathering clouds of World War II, Tesla announced that he had conceived a new "peace beam" weapon capable of ending war forever. He saw his device, which we now know as a charged particle beam, as a kind of "Chinese wall," an anti-war device that would safeguard national borders. The papers took a different view: "TESLA, AT 78, BARES NEW 'DEATH BEAM'" blared The New York Times' front page on July 11, 1934.
The possibility of a world power developing a particle beam haunted the Cold War, especially after some of Tesla's papers went missing following his death [sources: Cheney and Uth; Jonnes; PBS; PBS].
CPBs were made famous by Reagan's Strategic Defense Initiative, or Star Wars, program, but the U.S. Defense Advanced Research Projects Agency (DARPA) was investigating them as early as 1958 [source: Roberds].
7
He Had a Loose Fuse or Two
Who cares if he had a loose fuse! He invented the Tesla coil, for goodness' sake.
Jeff Kravitz/FilmMagic/Getty Images
For good or ill, quirkiness is a quality we associate with genius, and Tesla does not disappoint.
Some say Tesla constructed his greatest inventions, including his induction motor, entirely within his own mind. Unlike Edison, who worked a problem through prototyping, trial and error and similar hands-on methods, Tesla found that key solutions sometimes came to him in blinding flashes of insight [sources: Cheney and Uth; Jonnes].
By his own account, Tesla suffered from visual and auditory hallucinations, as well as hypersensitivity to vibrations and strong light [sources: Chandrasekhar; Pickover]. He also feared round objects, such as women's pearls, and fixated on the number three [sources: Jonnes; Pickover].
The inventor also suffered a progressive germ aversion and eventually limited his diet to boiled foods. This phobia reportedly arose after a scientific colleague showed him unboiled water under a microscope. Late in life, the aging scientist kept pigeons in his hotel room, but continued to dress as nattily as ever -- behaviors that led some to question his mental state [sources: Jonnes; PBS].
Tesla's peculiarities did not impair his socializing, however; reporters and friends described him as charming, humble and well-spoken.
Some say Tesla constructed his greatest inventions, including his induction motor, entirely within his own mind. Unlike Edison, who worked a problem through prototyping, trial and error and similar hands-on methods, Tesla found that key solutions sometimes came to him in blinding flashes of insight [sources: Cheney and Uth; Jonnes].
By his own account, Tesla suffered from visual and auditory hallucinations, as well as hypersensitivity to vibrations and strong light [sources: Chandrasekhar; Pickover]. He also feared round objects, such as women's pearls, and fixated on the number three [sources: Jonnes; Pickover].
The inventor also suffered a progressive germ aversion and eventually limited his diet to boiled foods. This phobia reportedly arose after a scientific colleague showed him unboiled water under a microscope. Late in life, the aging scientist kept pigeons in his hotel room, but continued to dress as nattily as ever -- behaviors that led some to question his mental state [sources: Jonnes; PBS].
Tesla's peculiarities did not impair his socializing, however; reporters and friends described him as charming, humble and well-spoken.
6
He Has a Scientific Unit Named After Him
Tesla's eponymous SI unit can be used to measure stronger magnetic fields, like those of MRI machines.
Dana Neely/Getty Images
They don't just hand those things out like party favors, you know.
Tesla, like Carl Friedrich Gauss, lends his name to a unit of magnetic flux density in the International System of Units (abbreviated SI). A tesla can also be thought of as a unit of magnetic induction [source: Encyclopaedia Britannica]. At one time, high-frequency currents were known as Tesla currents [source: Houston and Kennelly].
One tesla equals one weber per square meter, or 10,000 gauss (hence, scientists often use gauss to measure weak magnetic fields, reserving tesla for stronger ones, like those used in MRIs). A weber is a unit of magnetic flux, which can be thought of as the amount of magnetic energy "flowing" over an area, such as the surface of a magnet.
Remember above when we described induction, and how changing magnetic fields can induce currents to flow in a conductor? One weber is the amount of this magnetic energy "flow" required to induce one volt of current in a loop of wire. Actually, it's a bit more specific than that: The definition assumes that you drop the flow, or flux, to zero at a uniform rate, and do it in one second [source: Encyclopaedia Britannica].
The weber is named for Wilhelm Eduard Weber, a German physicist known for his work in terrestrial magnetism and his invention in 1833 of an electromagnetic telegraph [source: Encyclopaedia Britannica].
Tesla, like Carl Friedrich Gauss, lends his name to a unit of magnetic flux density in the International System of Units (abbreviated SI). A tesla can also be thought of as a unit of magnetic induction [source: Encyclopaedia Britannica]. At one time, high-frequency currents were known as Tesla currents [source: Houston and Kennelly].
One tesla equals one weber per square meter, or 10,000 gauss (hence, scientists often use gauss to measure weak magnetic fields, reserving tesla for stronger ones, like those used in MRIs). A weber is a unit of magnetic flux, which can be thought of as the amount of magnetic energy "flowing" over an area, such as the surface of a magnet.
Remember above when we described induction, and how changing magnetic fields can induce currents to flow in a conductor? One weber is the amount of this magnetic energy "flow" required to induce one volt of current in a loop of wire. Actually, it's a bit more specific than that: The definition assumes that you drop the flow, or flux, to zero at a uniform rate, and do it in one second [source: Encyclopaedia Britannica].
The weber is named for Wilhelm Eduard Weber, a German physicist known for his work in terrestrial magnetism and his invention in 1833 of an electromagnetic telegraph [source: Encyclopaedia Britannica].
5
He Was a Prolific Polymath
Vita-Rays?
Scientists at the turn of the 20th century were just becoming familiar with radiation and what it could do; in the process, they sometimes raised strange hypotheses or drew dubious conclusions. Numerous manufacturers, for example, added radium to products after it was discovered that radiation could shrink tumors [source: Blum].
Over his long career, Tesla registered more than 111 American patents and around 300 patents worldwide [sources: Jonnes; Šarboh].
While investigating high-frequency electricity and trying to improve upon Edison's light bulbs, which were only 5 percent efficient, Tesla developed some of the first neon lights. He premiered them at that same 1893 World's Fair we mentioned, twisting their tubes to spell out the names of beloved scientists such as Michael Faraday and James Clerk Maxwell [sources: Cheney and Uth; PBS]. He also developed early fluorescent lights, which he illuminated wirelessly using electrostatic waves [sources: Cheney and Uth; Jonnes].
Tesla's invention and demonstration of radio-controlled vehicles has earned him a place among the pioneers of robotics. In fact, the scientist described his "teleautomaton" as the first step in a race of robots, although it had no more programming or self-guidance than a modern RC car [sources: Cheney and Uth; PBS].
A novel bladeless turbine designed by Tesla rotated at such high speeds that its component disks distorted. Tesla never solved the problem, but modern materials such as Kevlar, carbon-fiber and titanium-impregnated plastic have inspired some to pick up where he left off [sources: PBS].
Tesla also reported taking X-ray photographs in 1896, a short time after Wilhelm Röntgen discovered X-rays [sources: Electrical Review; PBS].
While investigating high-frequency electricity and trying to improve upon Edison's light bulbs, which were only 5 percent efficient, Tesla developed some of the first neon lights. He premiered them at that same 1893 World's Fair we mentioned, twisting their tubes to spell out the names of beloved scientists such as Michael Faraday and James Clerk Maxwell [sources: Cheney and Uth; PBS]. He also developed early fluorescent lights, which he illuminated wirelessly using electrostatic waves [sources: Cheney and Uth; Jonnes].
Tesla's invention and demonstration of radio-controlled vehicles has earned him a place among the pioneers of robotics. In fact, the scientist described his "teleautomaton" as the first step in a race of robots, although it had no more programming or self-guidance than a modern RC car [sources: Cheney and Uth; PBS].
A novel bladeless turbine designed by Tesla rotated at such high speeds that its component disks distorted. Tesla never solved the problem, but modern materials such as Kevlar, carbon-fiber and titanium-impregnated plastic have inspired some to pick up where he left off [sources: PBS].
Tesla also reported taking X-ray photographs in 1896, a short time after Wilhelm Röntgen discovered X-rays [sources: Electrical Review; PBS].
4
He Gave Us Radio
The Static Over Radio's Inventor
For decades, Guglielmo Marconi was known as the father of radio. Marconi, an Italian nobleman with strong connections to British aristocracy and backing from Edison, contributed significantly to the field and made radio a business success. In 1904, he convinced the U.S. Patent Office to grant him the radio patent, despite previous rejections based on Tesla's widely recognized primacy [sources: Harkins; PBS].
Radio arose from an array of discoveries and innovations, but Tesla's work devising and refining its foundational technologies has earned him hard-fought recognition as its father [sources: Jonnes; Vujovic].
The scientist's work in the field grew out of his foray into the wireless transmission of energy -- which, if you think about it, is exactly what radio is.
Not only did Tesla file the first radio patents, he also gave a lecture in1893 -- two years before Marconi began experimenting with radio -- that laid out how radio broadcasting worked, complete with a demonstration of radio communication. By mid-1894, he had built and begun testing a small, portable radio-transmitting station [sources: Cheney; Jonnes].
As with the induction generator and transformer, Tesla built upon the work of his predecessors, but with unparalleled vision. James Clerk Maxwell had theorized electromagnetic waves, and Heinrich Hertz had figured out how to transmit them, but the Tesla coil, and Tesla's four tuned circuits for transmitting and receiving, made radio a reality. His patents describe the fundamental way we still transmit and receive radio signals [sources: Cheney and Uth; Encyclopaedia Britannica; Encyclopaedia Britannica; Vujovic].
Tesla also pioneered radio control -- an idea he patented on Nov. 8, 1898, and demonstrated at the 1898 Electrical Exhibition at Madison Square Garden [sources: Jonnes; PBS; Vujovic].
The scientist's work in the field grew out of his foray into the wireless transmission of energy -- which, if you think about it, is exactly what radio is.
Not only did Tesla file the first radio patents, he also gave a lecture in1893 -- two years before Marconi began experimenting with radio -- that laid out how radio broadcasting worked, complete with a demonstration of radio communication. By mid-1894, he had built and begun testing a small, portable radio-transmitting station [sources: Cheney; Jonnes].
As with the induction generator and transformer, Tesla built upon the work of his predecessors, but with unparalleled vision. James Clerk Maxwell had theorized electromagnetic waves, and Heinrich Hertz had figured out how to transmit them, but the Tesla coil, and Tesla's four tuned circuits for transmitting and receiving, made radio a reality. His patents describe the fundamental way we still transmit and receive radio signals [sources: Cheney and Uth; Encyclopaedia Britannica; Encyclopaedia Britannica; Vujovic].
Tesla also pioneered radio control -- an idea he patented on Nov. 8, 1898, and demonstrated at the 1898 Electrical Exhibition at Madison Square Garden [sources: Jonnes; PBS; Vujovic].
3
Two More Words: Secret Labs
Saving Wardenclyffe
Tesla's Wardenclyffe work was over almost before it began. While the tower was still under construction, Marconi made his famous trans-Atlantic radio broadcast, robbing Tesla of his great moment, and the stock market crashed. J. Pierpont Morgan, who financed Wardenclyffe, was already dubious about providing free electricity, and backed out of the deal. The government demolished the tower in 1917 as a wartime security measure [sources: Jonnes; PBS; Vujovic].
Like any great movie scientist or Bond villain, any self-respecting science god requires a secret laboratory -- preferably one located in some remote locale and bristling with mad machines. Tesla had two.
In 1899, Tesla constructed a lab in Colorado Springs, Colo., to delve into the mysteries of high voltage and high frequency electricity [sources: Jonnes; PBS; Vujovic]. In one experiment, a 42-foot (12.8-meter) metal mast drove huge electrical impulses into the ground; in another, a Tesla coil shot 100-foot (30.5-meter) arcs of electricity across the room. The latter's surge blew out the electric company's dynamo and cast Colorado Springs into darkness [sources: Jonnes; PBS].
While at Colorado Springs, Tesla proved the existence of terrestrial stationary waves -- a means by which the Earth could conduct energy at certain electrical frequencies -- by illuminating 200 lamps from 25 miles (40 kilometers) away [sources: PBS; Vujovic]. As far as we know (contrary to the film "The Prestige"), he never worked on human teleportation.
Tesla later built his second secret lab, Wardenclyffe, closer to his Manhattan home. The Shoreham, Long Island, facility featured a 50-ton, 187-foot-high (45,000-kilogram, 57-meter-high) transmitting tower above a 120-foot-deep (36.6-meter-deep) well, along with 16 iron pipes sunk 300 feet (91.4 meters) deeper. Tesla planned to transmit power through the planet, using the rods to "get a grip of the Earth ... so that the whole of
In 1899, Tesla constructed a lab in Colorado Springs, Colo., to delve into the mysteries of high voltage and high frequency electricity [sources: Jonnes; PBS; Vujovic]. In one experiment, a 42-foot (12.8-meter) metal mast drove huge electrical impulses into the ground; in another, a Tesla coil shot 100-foot (30.5-meter) arcs of electricity across the room. The latter's surge blew out the electric company's dynamo and cast Colorado Springs into darkness [sources: Jonnes; PBS].
While at Colorado Springs, Tesla proved the existence of terrestrial stationary waves -- a means by which the Earth could conduct energy at certain electrical frequencies -- by illuminating 200 lamps from 25 miles (40 kilometers) away [sources: PBS; Vujovic]. As far as we know (contrary to the film "The Prestige"), he never worked on human teleportation.
Tesla later built his second secret lab, Wardenclyffe, closer to his Manhattan home. The Shoreham, Long Island, facility featured a 50-ton, 187-foot-high (45,000-kilogram, 57-meter-high) transmitting tower above a 120-foot-deep (36.6-meter-deep) well, along with 16 iron pipes sunk 300 feet (91.4 meters) deeper. Tesla planned to transmit power through the planet, using the rods to "get a grip of the Earth ... so that the whole of
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