Wednesday, November 16, 2016

Bed Time Story 46

Once upon a time there was a man named Alexander Graham Bell and he
was a Scottish-born scientist, inventor, engineer and innovator who is credited with patenting the first practical telephone.
Bell's father, grandfather, and brother had all been associated with work on elocution and speech, and both his mother and wife were deaf, profoundly influencing Bell's life's work. His research on hearing and speech further led him to experiment with hearing devices which eventually culminated in Bell being awarded the first U.S. patent for the telephone in 1876. Bell considered his most famous invention an intrusion on his real work as a scientist and refused to have a telephone in his study.
Many other inventions marked Bell's later life, including groundbreaking work in optical telecommunications, hydrofoils and aeronautics. Although Bell was not one of the 33 founders of the National Geographic Society, he had a strong influence on the magazine while serving as the second president from January 7, 1898, until 1903.
 Alexander Bell was born in Edinburgh, Scotland, on March 3, 1847. The family home was at 16 South Charlotte Street, and has a stone inscription marking it as Alexander Graham Bell's birthplace. He had two brothers: Melville James Bell (1845–70) and Edward Charles Bell (1848–67), both of whom would die of tuberculosis. His father was Professor Alexander Melville Bell, a phonetician, and his mother was Eliza Grace (née Symonds). Born as just "Alexander Bell", at age 10 he made a plea to his father to have a middle name like his two brothers. For his 11th birthday, his father acquiesced and allowed him to adopt the name "Graham", chosen out of respect for Alexander Graham, a Canadian being treated by his father who had become a family friend. To close relatives and friends he remained "Aleck".
 As a child, young Bell displayed a natural curiosity about his world, resulting in gathering botanical specimens as well as experimenting even at an early age. His best friend was Ben Herdman, a neighbour whose family operated a flour mill, the scene of many forays. Young Bell asked what needed to be done at the mill. He was told wheat had to be dehusked through a laborious process and at the age of 12, Bell built a homemade device that combined rotating paddles with sets of nail brushes, creating a simple dehusking machine that was put into operation and used steadily for a number of years. In return, Ben's father John Herdman gave both boys the run of a small workshop in which to "invent".
From his early years, Bell showed a sensitive nature and a talent for art, poetry, and music that was encouraged by his mother. With no formal training, he mastered the piano and became the family's pianist.Despite being normally quiet and introspective, he reveled in mimicry and "voice tricks" akin to ventriloquism that continually entertained family guests during their occasional visits. Bell was also deeply affected by his mother's gradual deafness (she began to lose her hearing when he was 12), and learned a manual finger language so he could sit at her side and tap out silently the conversations swirling around the family parlour. He also developed a technique of speaking in clear, modulated tones directly into his mother's forehead wherein she would hear him with reasonable clarity. Bell's preoccupation with his mother's deafness led him to study acoustics.
His family was long associated with the teaching of elocution: his grandfather, Alexander Bell, in London, his uncle in Dublin, and his father, in Edinburgh, were all elocutionists. His father published a variety of works on the subject, several of which are still well known, especially his The Standard Elocutionist (1860),which appeared in Edinburgh in 1868. The Standard Elocutionist appeared in 168 British editions and sold over a quarter of a million copies in the United States alone. In this treatise, his father explains his methods of how to instruct deaf-mutes (as they were then known) to articulate words and read other people's lip movements to decipher meaning. Bell's father taught him and his brothers not only to write Visible Speech but to identify any symbol and its accompanying sound. Bell became so proficient that he became a part of his father's public demonstrations and astounded audiences with his abilities. He could decipher Visible Speech representing virtually every language, including Latin, Scottish Gaelic, and even Sanskrit, accurately reciting written tracts without any prior knowledge of their pronunciation.
 As a young child, Bell, like his brothers, received his early schooling at home from his father. At an early age, he was enrolled at the Royal High School, Edinburgh, Scotland, which he left at age 15, completing only the first four forms. His school record was undistinguished, marked by absenteeism and lacklustre grades. His main interest remained in the sciences, especially biology, while he treated other school subjects with indifference, to the dismay of his demanding father. Upon leaving school, Bell travelled to London to live with his grandfather, Alexander Bell. During the year he spent with his grandfather, a love of learning was born, with long hours spent in serious discussion and study. The elder Bell took great efforts to have his young pupil learn to speak clearly and with conviction, the attributes that his pupil would need to become a teacher himself. At age 16, Bell secured a position as a "pupil-teacher" of elocution and music, in Weston House Academy, at Elgin, Moray, Scotland. Although he was enrolled as a student in Latin and Greek, he instructed classes himself in return for board and £10 per session.The following year, he attended the University of Edinburgh; joining his older brother Melville who had enrolled there the previous year. In 1868, not long before he departed for Canada with his family, Bell completed his matriculation exams and was accepted for admission to the University of London
.By 1874, Bell's initial work on the harmonic telegraph had entered a formative stage, with progress made both at his new Boston "laboratory" (a rented facility) and at his family home in Canada a big success.While working that summer in Brantford, Bell experimented with a "phonautograph", a pen-like machine that could draw shapes of sound waves on smoked glass by tracing their vibrations. Bell thought it might be possible to generate undulating electrical currents that corresponded to sound waves.Bell also thought that multiple metal reeds tuned to different frequencies like a harp would be able to convert the undulating currents back into sound. But he had no working model to demonstrate the feasibility of these ideas.
In 1874, telegraph message traffic was rapidly expanding and in the words of Western Union President William Orton, had become "the nervous system of commerce". Orton had contracted with inventors Thomas Edison and Elisha Gray to find a way to send multiple telegraph messages on each telegraph line to avoid the great cost of constructing new lines. When Bell mentioned to Gardiner Hubbard and Thomas Sanders that he was working on a method of sending multiple tones on a telegraph wire using a multi-reed device, the two wealthy patrons began to financially support Bell's experiments. Patent matters would be handled by Hubbard's patent attorney, Anthony Pollok.
In March 1875, Bell and Pollok visited the famous scientist Joseph Henry, who was then director of the Smithsonian Institution, and asked Henry's advice on the electrical multi-reed apparatus that Bell hoped would transmit the human voice by telegraph. Henry replied that Bell had "the germ of a great invention". When Bell said that he did not have the necessary knowledge, Henry replied, "Get it!" That declaration greatly encouraged Bell to keep trying, even though he did not have the equipment needed to continue his experiments, nor the ability to create a working model of his ideas. However, a chance meeting in 1874 between Bell and Thomas A. Watson, an experienced electrical designer and mechanic at the electrical machine shop of Charles Williams, changed all that.
With financial support from Sanders and Hubbard, Bell hired Thomas Watson as his assistant, and the two of them experimented with acoustic telegraphy. On June 2, 1875, Watson accidentally plucked one of the reeds and Bell, at the receiving end of the wire, heard the overtones of the reed; overtones that would be necessary for transmitting speech. That demonstrated to Bell that only one reed or armature was necessary, not multiple reeds. This led to the "gallows" sound-powered telephone, which could transmit indistinct, voice-like sounds, but not clear speech.

Although Alexander Graham Bell is most often associated with the invention of the telephone, his interests were extremely varied. According to one of his biographers, Charlotte Gray, Bell's work ranged "unfettered across the scientific landscape" and he often went to bed voraciously reading the Encyclopædia Britannica, scouring it for new areas of interest. The range of Bell's inventive genius is represented only in part by the 18 patents granted in his name alone and the 12 he shared with his collaborators. These included 14 for the telephone and telegraph, four for the photophone, one for the phonograph, five for aerial vehicles, four for "hydroairplanes" and two for selenium cells. Bell's inventions spanned a wide range of interests and included a metal jacket to assist in breathing, the audiometer to detect minor hearing problems, a device to locate icebergs, investigations on how to separate salt from seawater, and work on finding alternative fuels.
Bell worked extensively in medical research and invented techniques for teaching speech to the deaf. During his Volta Laboratory period, Bell and his associates considered impressing a magnetic field on a record as a means of reproducing sound. Although the trio briefly experimented with the concept, they could not develop a workable prototype. They abandoned the idea, never realizing they had glimpsed a basic principle which would one day find its application in the tape recorder, the hard disc and floppy disc drive and other magnetic media.
Bell's own home used a primitive form of air conditioning, in which fans blew currents of air across great blocks of ice. He also anticipated modern concerns with fuel shortages and industrial pollution. Methane gas, he reasoned, could be produced from the waste of farms and factories. At his Canadian estate in Nova Scotia, he experimented with composting toilets and devices to capture water from the atmosphere. In a magazine interview published shortly before his death, he reflected on the possibility of using solar panels to heat houses.

Bell died of complications arising from diabetes on August 2, 1922, at his private estate in Cape Brenton, Nova Scotia, at age 75. Bell had also been afflicted with pernicious anemia. His last view of the land he had inhabited was by moonlight on his mountain estate at 2:00 a.m. While tending to him after his long illness, Mabel, his wife, whispered, "Don't leave me." By way of reply, Bell signed "no...", lost consciousness, and died shortly after.
On learning of Bell's death, the Canadian Prime Minister, Mackenzie King, cabled Mrs. Bell, saying:
My colleagues in the Government join with me in expressing to you our sense of the world's loss in the death of your distinguished husband. It will ever be a source of pride to our country that the great invention, with which his name is immortally associated, is a part of its history. On the behalf of the citizens of Canada, may I extend to you an expression of our combined gratitude and sympathy.
Bell's coffin was constructed of Beinn Bhreagh pine by his laboratory staff, lined with the same red silk fabric used in his tetrahedral kite experiments. To help celebrate his life, his wife asked guests not to wear black (the traditional funeral color) while attending his service, during which soloist Jean MacDonald sang a verse of Robert Louis Stevenson's "Requiem":
Under a wide and starry sky,
Dig the grave and let me lie.
Glad did I live and gladly die
And I laid me down with a will.
Upon the conclusion of Bell's funeral, "every phone on the continent of North America was silenced in honor of the man who had given to mankind the means for direct communication at a distance".
Dr. Alexander Graham Bell was buried atop Beinn Bhreagh mountain, on his estate where he had resided increasingly for the last 35 years of his life, overlooking Bras d'Or Lake. He was survived by his wife Mabel, his two daughters, Elsie May and Marian, and nine of his grandchildren.
With this known and so much more to learn about Alexander Graham Bell i would have to say he is on my list for one of the most notorious inventors of all time.

Wednesday, October 12, 2016

Bed Time Story 45

Once upon a time there was a man named Jean-Maurice-Émile Baudot and he was a French telegraph engineer and inventor of the first means of digital communication Baudot code, was one of the pioneers of telecommunications. He invented a multiplexed printing telegraph system that used his code and allowed multiple transmissions over a single line. The baud unit was named after him.
Baudot was born in Magneux, Haute-Marne, France, the son of farmer Pierre Emile Baudot, who later became the mayor of Magneux. His only formal education was at his local primary school, after which he carried out agricultural work on his father's farm before joining the French Post & Telegraph Administration as an apprentice operator in 1869.
The telegraph service trained him in the Morse telegraph and also sent him on a four-month course of instruction on the Hughes printing telegraph system, which was later to inspire his own system.
After serving briefly during the Franco-Prussian War, he returned to civilian duties in Paris in 1872.The Telegraph Service encouraged Baudot to develop—on his own time—a system for time-multiplexing several telegraph messages using Hughes teleprinters. He realised that with most printing telegraphs of the period the line is idle for most of the time, apart from the brief intervals when a character is transmitted. Baudot devised one of the first applications of time-division multiplexing in telegraphy. Using synchronized clockwork-powered switches at the transmitting and receiving ends, he was able to transmit five messages simultaneously; the system was officially adopted by the French Post & Telegraph Administration five years later.
Baudot invented his telegraph code in 1870 and patented it in 1874. It was a 5-bit code, with equal on and off intervals, which allowed telegraph transmission of the Roman alphabet, punctuation and control signals. By 1874 or 1875 (various sources give both dates) he had also perfected the electromechanical hardware to transmit his code. His inventions were based on the printing mechanism from Hughes' instrument, a distributor invented by Bernard Meyer in 1871, and the five-unit code devised by Carl Friedrich Gauss and Wilhelm Weber. Baudot combined these, together with original ideas of his own, to produce a complete multiplex system.On 17 June 1874 Baudot patented his first printing telegraph (Patent no. 103,898 "Système de télégraphie rapide"), in which the signals were translated automatically into typographic characters. Baudot's hardware had three main parts: the keyboard, the distributor, and a paper tape.
Each operator - there were as many as four - was allocated a single sector. The keyboard had just five piano type keys, operated with two fingers of the left hand and three fingers of the right hand. The five unit code was designed to be easy to remember. Once the keys had been pressed they were locked down until the contacts again passed over the sector connected to that particular keyboard, when the keyboard was unlocked ready for the next character to be entered, with an audible click (known as the "cadence signal") to warn the operator. Operators had to maintain a steady rhythm, and the usual speed of operation was 30 words per minute.
The receiver was also connected to the distributor. The signals from the telegraph line were temporarily stored on a set of five electromagnets, before being decoded to print the corresponding character on paper tape.
Accurate operation of this system depended on the distributor at the transmitting end keeping in synchronization with the one at the receiving end and operators only sending characters when the contacts passed over their allocated sector. This could be achieved at a speed of 30 wpm by strictly observing the "cadence" of rhythm of the system when the distributor gave the operator the use of the line.
The Baudot system was accepted by the French Telegraph Administration in 1875, with the first online tests of his system occurring between Paris and Bordeaux on 12 November 1877. At the end of 1877, the Paris-Rome line, which was about 1,700 kilometres (1,100 mi), began operating a duplex Baudot.
The Baudot apparatus was shown at the Paris Exposition Universelle (1878) and won him the Exposition's gold medal, as well as bringing his system to worldwide notice.

After the first success of his system, Baudot was promoted to Controller in 1880, and was named Inspector-Engineer in 1882.
In July 1887 he conducted successful tests on the Atlantic telegraph cable between Weston-super-Mare and Waterville, Nova Scotia operated by the Commercial Company, with a double Baudot installed in duplex, the Baudot transmitters and receivers substituted for the recorder.
On 8 August 1890 he established communications between Paris, Vannes, and Lorient over a single wire. On 3 January 1894 he installed a triplex apparatus on the telegraph between Paris and Bordeaux that had previously been operating with some difficulty on the Hughes telegraph system. On 27 April 1894 he established communications between the Paris stock exchange and the Milan stock exchange, again over a single wire, using his new invention, the retransmitter. The British Post Office adopted the Baudot system in 1897 for a simplex circuit between London and Paris.
In 1897 the Baudot system was improved by switching to punched tape, which was prepared offline like the Morse tape used with the Wheatstone and Creed systems. A tape reader, controlled by the Baudot distributor, then replaced the manual keyboard. The tape had five rows of holes for the code, with a sixth row of smaller holes for transporting the tape through the reader mechanism. Baudot’s code was later standardised as International Telegraph Alphabet Number One.
Baudot received little help from the French Telegraph Administration for his system, and often had to fund his own research, even having to sell the gold medal awarded by the 1878 Exposition Universelle in 1880.
The Baudot telegraph system was employed progressively in France, and then was adopted in other countries, Italy being the first to introduce it, in its inland service, in 1887. The Netherlands followed in 1895, Switzerland in 1896, and Austria and Brazil in 1897. The British Post Office adopted it for a simplex circuit between London and Paris during 1897, then used it for more general purposes from 1898. In 1900 it was adopted by Germany, by Russia in 1904, the British West Indies in 1905, Spain in 1906, Belgium in 1909, Argentina in 1912, and Romania in 1913.
 Baudot married Marie Josephine Adelaide Langrognet on 15 January 1890. She died only three months later, on 9 April 1890.
Soon after starting work with the telegraph service, Baudot began to suffer physical discomfort and was frequently absent from work for this reason, for as long as a month on one occasion. His condition affected him for the rest of his life, until he died on 28 March 1903, at Sceaux, Hauts-de-Seine, near Paris, at the age of 57. With this known and so much more to learn about Baudot I would say he is on my list for being one of the most interesting inventors of his time.




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                                       From Wikipedia, the free encyclopedia

Wednesday, October 5, 2016

Bed Time Story 44

Once upon a time there was a man named Trevor Graham Baylis and he is an English inventor. He is best known for inventing the wind-up radio. Rather than using batteries or external electrical source, the radio is powered by the user winding a crank for several seconds. This stores energy in a spring which then drives an electrical generator to operate the radio receiver. He invented it in response to the need to communicate information about AIDS to the people of Africa. He runs Trevor Baylis Brands plc, a company dedicated to helping inventors to develop and protect their ideas and to find a route to market.
Trevor Baylis was born on 13 May 1937 to Cecil Archibald Walter Baylis and Gladys Jane Brown  in Kilburn, London.He grew up in Southall, Middlesex, and attended North Primary School and Dormers Wells Secondary Modern School.
His first job was in a Soil Mechanics Laboratory in Southall where a day-release arrangement enabled him to study mechanical and structural engineering at a local technical college.
A keen swimmer, he swam for Great Britain at the age of 15; he narrowly failed to qualify for the 1956 Summer Olympics. When he was 20 he started his National Service as a physical training instructor and swam for the Army and Imperial Services during this time. When he left the army he took a job with Purley Pools, the company which made the first free-standing swimming pools. Initially he worked in a sales role but later in research and development. His swimming skills enabled him to demonstrate the pools and drew the crowds at shows, and this led to forming his own aquatic display company as professional swimmer, stunt performer and entertainer, performing high dives into a glass-sided tank. With money earned from performing as an underwater escape artiste in the Berlin Circus he set up Shotline Steel Swimming Pools, a company which supplies modular swimming pools to schools in the UK.
Baylis' work as a stunt man made him feel kinship with disabled people through friends whose injuries had ended their performing careers. In 1985 this involvement led him to invent and develop a range of products for the disabled called Orange Aids.
In 1991, he saw a television programme about the spread of AIDS in Africa and that a way to halt the spread of the disease would be by education and information using radio broadcasts. Before the programme had finished he had adjourned to his workshop and assembled the first prototype of his most well-known invention, the wind-up radio. The original prototype included a small transistor radio, an electric motor from a toy car, and the clockwork mechanism from a music box. He patented the idea and then tried to get it into production, but was met with rejection from everyone he approached.
The turning point came when his prototype was featured on the BBC TV programme Tomorrow's World in April 1994. With money from investors he formed a company Freeplay Energy and in 1996 the Freeplay radio was awarded the BBC Design Award for Best Product and Best Design. In the same year Baylis met Queen Elizabeth II and Nelson Mandela at a state banquet, and also travelled to Africa with the Dutch Television Service to produce a documentary about his life. He was awarded the 1996 World Vision Award for Development Initiative that year.
Baylis filed his first patent in 1997 The original Baygen radios used the windup mainspring design which is no longer in production. 1997 saw the production in South Africa of the new generation Freeplay radio, a smaller and cheaper model designed for the Western consumer market which uses rechargeable cells with a generic crank generator.
Numerous tours, interviews and television appearances have followed, and Baylis has been awarded many honours including the OBE in 1997, and eleven honorary degrees from UK universities (1998 to 2005) including the degree of Doctor of the University from the Open University in 2001. In 1999 he received the Pipe Smoker of the Year Award for his invention of the Freeplay radio from the British Pipesmokers' Council, which honoured famous pipesmokers. He continues to invent, and in 2001 he completed a 100-mile walk across the Namib Desert demonstrating his electric shoes and raising money for the Mines Advisory Group. The "electric shoes" use piezoelectric contacts in the heels to charge a small battery that can be used to operate a radio transceiver or cellular telephone.
Following his own experience of the difficulties faced by inventors, Baylis set up the Trevor Baylis Foundation to "promote the activity of Invention by encouraging and supporting Inventors and Engineers". This led to the formation of the company Trevor Baylis Brands PLC which provides inventors with professional partnership and services to enable them to establish the originality of their ideas, to patent or otherwise protect them, and to get their products to market. Their primary goal is to secure licence agreements for inventors, but they also consider starting up new companies around good ideas. The company is based in Richmond, London.Baylis has lived on Eel Pie Island for many years; he regularly attended jazz performances at the Eel Pie Island Hotel. He is single and is well known for being a pipe smoker. Baylis was diagnosed with Crohn's disease in 1971; part of his small intestine has been surgically removed. In March 2010, Baylis stated that he was sexually abused at age 5 by a Church of England curate.This was also covered in his 1999 autobiography.Baylis was appointed Officer of the Order of the British Empire (OBE) in the 1997 Birthday Honours and Commander of the Order of the British Empire (CBE) in the 2015 New Year Honours for services to intellectual property. He was awarded an honorary doctorate by Leeds Metropolitan University in June 2005.With this known and much more to learn about Baylis I would have to say he is on my list for one of the most interesting inventors.




                                                             The End

                                          From Wikipedia, the free encyclopedia

Wednesday, September 28, 2016

Bed Time Story 43

Once upon a time there was a man named Wladimir Davidovich Baranoff-Rossine and he
was a Ukrainian, Russian and French painter, avant-garde artist (Cubo-Futurism), and inventor.
 Wladimir Baranoff-Rossine was born in Kherson, Ukraine.In 1902 he studied at the School of the Society for the Furthering of the Arts in St. Petersburg. From 1903 to 1907 he attended the Imperial Academy of Arts in St. Petersburg.In 1908 he exhibited with the group Zveno (The Link) in Kiev organized by the artist David Burliuk and his brother Wladimir Burliuk.In 1910 he moved to Paris, where until 1914 he was a resident in the artist's colony La Ruche together with Alexander Archipenko, Sonia Delaunay-Terk, Nathan Altman and others. He exhibited regularly in Paris after 1911.He returned to Russia in 1914. In 1916 he had a solo exhibition in Oslo. In 1918 he had exhibits with the union of artists Mir Iskusstva (World of Art) in Petrograd (St.Petersburg). In the same year he had an exhibition with the group Jewish Society for the Furthering of the Arts in Moscow, together with Nathan Altman, El Lissitzky and David Shterenberg. He participated at the First State Free Art Exhibition in Petrograd in 1919.In 1922 Baranoff-Rossine was the teacher at the Higher Artistic-Technical Workshops (VKhUTEMAS) in Moscow.
In 1924 he had the first presentation of his optophonic piano during a performance at the Bolshoi Theatre in Moscow - a synaesthetic instrument that was capable of creating sounds and coloured lights, patterns and textures simultaneously.In 1925 he emigrated to France.Continuously experimenting, Baranoff-Rossine applied the art of colour to military art with the technique of camouflage or the Cameleon process and this was marketed with Robert Delaunay. Baranov-Rossine is credited as an author of pointillist or dynamic military camouflage. He also invented a "photochromometer" that allowed the determination of the qualities of precious stones. In another field, he perfected a machine that made, sterlized and distributed fizzy drinks, the "Multiperco", and this received several technical awards at the time. During the German occupation Baranoff-Rossine was deported to a German concentration camp and murdered there by the Nazis. With this known and so much more to learn about  Wladimir Baranoff-Rossine I have to say he is on my list of most interesting inventor of this day and age.



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                                           From Wikipedia, the free encyclopedia

Wednesday, September 21, 2016

Bed Time Story 42

Once upon a time there was a man named Nikolay Gennadiyevich Basov and he was a Soviet physicist and educator. For his fundamental work in the field of quantum electronics that led to the development of laser and maser, Basov shared the 1964 Nobel Prize in Physics with Alexander Prokhorov and Charles Hard Townes.Basov was born in the town Usman, now in Lipetsk Oblast in 1922. He finished school in 1941 in Voronezh, and was later called for military service at Kuibyshev Military Medical Academy. In 1943 he left the academy and served in the Red Army , participating in the Second World War with the 1st Ukrainian Front.Basov graduated from Moscow Engineering Physics Institute (MEPhI) in 1950. He then held a professorship at MEPhI and also worked in the Lebedev Physical Institute (LPI), where he defended a dissertation for the Candidate of Sciences degree (equivalent to PhD) in 1953 and a dissertation for the Doctor of Sciences degree in 1956. Basov was the Director of the LPI in 1973–1988. He was elected as corresponding member of the USSR Academy of Sciences (Russian Academy of Sciences since 1991) in 1962 and Full Member of the Academy in 1966. In 1967, he was elected a Member of the Presidium of the Academy (1967—1990), and since 1990 he was the councillor of the Presidium of the USSR Academy of Sciences. He was Honorary President and Member of the International Academy of Science, Munich. He was the head of the laboratory of quantum radiophysics at the LPI until his death in 2001.Basov's contributions to the development of the laser and maser, which won him the Nobel Prize in 1964, led to new missile defense initiatives seeking to employ them. He entered politics in 1951 and became a member of parliament (the Soviet of the Union of the Supreme Soviet) in 1974. Following U.S. President Ronald Reagan's speech on SDI in 1983, Basov signed a letter along with other Soviet scientists condemning the initiative, which was published in the New York Times. In 1985 he declared the Soviet Union was capable of matching SDI proposals made by the U.S.. With this known and so much more to learn about Nikolay Basov i would have to say he is on my list for one of the most interesting inventors.




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                                               From Wikipedia, the free encyclopedia


Wednesday, September 14, 2016

Bed Time Story 41

Once upon a time there was a man named John Logie Baird and he was a Scottish engineer, innovator, one of the inventors of the mechanical television, demonstrating the first working television system on 26 January 1926, and inventor of both the first publicly demonstrated colour television system, and the first purely electronic colour television picture tube.
In 1928 the Baird Television Development Company achieved the first transatlantic television transmission. Baird's early technological successes and his role in the practical introduction of broadcast television for home entertainment have earned him a prominent place in television's history.
Baird was ranked number 44 in the BBC's list of the 100 Greatest Britons following a UK-wide vote in 2002. In 2006, Baird was named as one of the 10 greatest Scottish scientists in history, having been listed in the National Library of Scotland's 'Scottish Science Hall of Fame'. In 2015 he was inducted into the Scottish Engineering Hall of Fame.Baird was born on 14 August 1888 in Helensburgh, Dunbartonshire, and was the youngest of four children of the Reverend John Baird, the Church of Scotland's minister for the local St Bride's Church and Jessie Morrison Inglis, the orphaned niece of a wealthy family of shipbuilders from Glasgow.
He was educated at Larchfield Academy (now part of Lomond School) in Helensburgh; the Glasgow and West of Scotland Technical College; and the University of Glasgow. While at college Baird undertook a series of engineering apprentice jobs as part of his course. The conditions in industrial Glasgow at the time helped form his socialist convictions but also contributed to his ill health. His degree course was interrupted by the First World War and he never returned to graduate. At the beginning of 1915 he volunteered for service in the British Army but was classified as unfit for active duty. Unable to go to the Front, he took a job with the Clyde Valley Electrical Power Company, which was engaged in munitions work.The development of television was the result of work by many inventors. Among them, Baird was a prominent pioneer and made major advances in the field. Many historians credit Baird with being the first to produce a live, moving, greyscale television image from reflected light. Baird achieved this, where other inventors had failed, by obtaining a better photoelectric cell and improving the signal conditioning from the photocell and the video amplifier.Between 1902 and 1907, Arthur Korn invented and built the first successful signal-conditioning circuits for image transmission. The circuits overcame the image-destroying lag effect that is part of selenium photocells. Korn's compensation circuit allowed him to send still fax pictures by telephone or wireless between countries and even over oceans, while his circuit operated without benefit of electronic amplification. Korn's success at transmitting halftone still images suggested that such compensation circuits might work in television. Baird was the direct beneficiary of Korn's research and success.In his first attempts to develop a working television system, Baird experimented with the Nipkow disk. Paul Gottlieb Nipkow had invented this scanning disc system in 1884. Television historian Albert Abramson calls Nipkow's patent "the master television patent". Nipkow's work is important because Baird and many others chose to develop it into a broadcast medium.In early 1923, and in poor health, Baird moved to 21 Linton Crescent, Hastings, on the south coast of England. He later rented a workshop in the Queen's Arcade in the town. Baird built what was to become the world's first working television set using items including an old hatbox and a pair of scissors, some darning needles, a few bicycle light lenses, a used tea chest, and sealing wax and glue that he purchased. In February 1924, he demonstrated to the Radio Times that a semi-mechanical analogue television system was possible by transmitting moving silhouette images. In July of the same year, he received a 1000-volt electric shock, but survived with only a burnt hand, and as a result his landlord, Mr Tree, asked him to vacate the premises. Baird gave the first public demonstration of moving silhouette images by television at Selfridges department store in London in a three-week series of demonstrations beginning on 25 March 1925.
In his laboratory on 2 October 1925, Baird successfully transmitted the first television picture with a greyscale image: the head of a ventriloquist's dummy nicknamed "Stooky Bill" in a 30-line vertically scanned image, at five pictures per second. Baird went downstairs and fetched an office worker, 20-year-old William Edward Taynton, to see what a human face would look like, and Taynton became the first person to be televised in a full tonal range. Looking for publicity, Baird visited the Daily Express newspaper to promote his invention. The news editor was terrified and he was quoted by one of his staff as saying: "For God's sake, go down to reception and get rid of a lunatic who's down there. He says he's got a machine for seeing by wireless! Watch him — he may have a razor on him."Some of Baird's early inventions were not fully successful. In his twenties he tried to create diamonds by heating graphite and shorted out Glasgow's electricity supply. Later Baird invented a glass razor, which was rust-resistant, but shattered. Inspired by pneumatic tyres he attempted to make pneumatic shoes, but his prototype contained semi-inflated balloons, which burst. He also invented a thermal undersock (the Baird undersock), which was moderately successful. Baird suffered from cold feet, and after a number of trials, he found that an extra layer of cotton inside the sock provided warmth.
Baird's numerous other developments demonstrated his particular talent at invention. He was a visionary and began to dabble with electricity. In 1928, he developed an early video recording device, which he dubbed Phonovision. The system consisted of a large Nipkow disk attached by a mechanical linkage to a conventional 78-rpm record-cutting lathe. The result was a disc that could record and play back a 30-line video signal. Technical difficulties with the system prevented its further development, but some of the original phonodiscs have been preserved, and have since been restored by Donald McLean, a Scottish electrical engineer.
Baird's other developments were in fibre-optics, radio direction finding, infrared night viewing and radar. There is discussion about his exact contribution to the development of radar, for his wartime defence projects have never been officially acknowledged by the UK government. According to Malcolm Baird, his son, what is known is that in 1926 Baird filed a patent for a device that formed images from reflected radio waves, a device remarkably similar to radar, and that he was in correspondence with the British government at the time. The radar contribution is in dispute. According to some experts, Baird's "noctovision" is not radar. Unlike radar (except Doppler radar), Noctovision is incapable of determining the distance to the scanned subject. Noctovision also cannot determine the coordinates of the subject in three-dimensional space.From December 1944, Logie Baird lived at 1 Station Road, Bexhill-on-Sea, East Sussex, immediately north of the station and subsequently died there on 14 June 1946 after suffering a stroke in February. The house was demolished in 2007 and the site is now apartments named Baird Court. Logie Baird is buried with his mother, father and wife in Helensburgh Cemetery. With this known and so much more to learn about John Baird i would have to say he is on my list of being one of the most notorious inventors of his time.




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                                              From Wikipedia, the free encyclopedia

Monday, September 5, 2016

Bed Time Story 40

Once upon a time there was a man named Nikolay Gennadiyevich Basov and he
was a Soviet physicist and educator. For his fundamental work in the field of quantum electronics that led to the development of laser and maser, Basov shared the 1964 Nobel Prize in Physics with Alexander Prokhorov and Charles Hard Townes.Basov was born in the town Usman, now in Lipetsk Oblast in 1922. He finished school in 1941 in Voronezh, and was later called for military service at Kuibyshev Military Medical Academy. In 1943 he left the academy and served in the Red Army participating in the Second World War with the 1st Ukrainian Front.Basov graduated from Moscow Engineering Physics Institute (MEPhI) in 1950. He then held a professorship at MEPhI and also worked in the Lebedev Physical Institute (LPI), where he defended a dissertation for the Candidate of Sciences degree (equivalent to PhD) in 1953 and a dissertation for the Doctor of Sciences degree in 1956. Basov was the Director of the LPI in 1973–1988. He was elected as corresponding member of the USSR Academy of Sciences (Russian Academy of Sciences since 1991) in 1962 and Full Member of the Academy in 1966. In 1967, he was elected a Member of the Presidium of the Academy (1967—1990), and since 1990 he was the councillor of the Presidium of the USSR Academy of Sciences. He was Honorary President and Member of the International Academy of Science, Munich. He was the head of the laboratory of quantum radiophysics at the LPI until his death in 2001.Basov's contributions to the development of the laser and maser, which won him the Nobel Prize in 1964, led to new missile defense initiatives seeking to employ them.He entered politics in 1951[clarification needed] and became a member of parliament (the Soviet of the Union of the Supreme Soviet) in 1974. Following U.S. President Ronald Reagan's speech on SDI in 1983, Basov signed a letter along with other Soviet scientists condemning the initiative, which was published in the New York Times. In 1985 he declared the Soviet Union was capable of matching SDI proposals made by the U.S. With this known and so much more to learn about Nikolay Basov i would have to say he is on my list of most interesting inventors of all time.



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Friday, August 19, 2016

Bed Time Story 39

Once upon a time there was a man named Anthony R. "Tony" Barringer  and he was a Canadian/American geophysicist. He made numerous contributions to mineral exploration technology. His most famous work was the development of the INPUT airborne electromagnetic system, which has been credited in the discovery of tens of billions of dollars' worth of ore deposits.
Before beginning his university studies, Barringer served with the British Army in World War II. In 1948, he began attending the University of London. In 1951, he obtained a B.Sc. in economic geology from the university's Imperial College of Science and Technology. He obtained a PhD degree in 1954, from the same institution.
Barringer left the United Kingdom to accept a post in Toronto, Canada with Selco Exploration as an exploration geologist. Eventually he was promoted to Manager of its Airborne and Technical Services division. At this time, he invented the INPUT (Induced Pulse Transient) airborne electromagnetic system and the equipment for a portable ground electromagnetic system. This technology uses one horizital transmitter looped around a fixed-wing aircraft and a vertically suspended receiver loop about 120 meters behind the aircraft. The transmitter electromagnetic pulses are half sine wave shape of millisecond duration, the induced transient is picked up by the receiver coil; analysis of the received wave pattern when matched against a catalog of waves forms generated in the lab based upon analog scale modeling allows explorers to get a better understanding of the minerals in a rock formation, without extracting the rocks. The Society of Exploration Geophysicists said INPUT was “a meritorious technical achievement which has been instrumental in the discovery of many base metal deposits in a number of countries around the world.”
In 1961, he formed a private company, Barringer Research Ltd. He was the President and major shareholder. Barringer continued to develop the airborne system and licenses its use to exploration companies. Major oil and mining companies depended on this remote-sensing technology for their exploration. It has been credited in the discovery of over 25 commercial ore deposits, representing tens of billions of dollars.
Barringer Research went public in 1967. Ten years later, Barringer moved to Denver, Colorado and brought the company's headquarters with him. He later became a citizen of the United States.
Barringer made numerous technical contributions to the mining industry, including a laser-induced fluorescence-based system used primarily in oil and gas exploration (FLUOROSCAN), correlation spectrometer used to measure atmospheric dispersions of various gases (COSPEC), an infrared remote sensor for atmospheric gases which has been used by NASA to measure the worldwide atmospheric distribution of carbon dioxide (GASPEC), two airborne conductivity mapping systems using very low frequency fields (E-phase and radiophase) and several particulate analyzers (COTRAN, SURTRACE, LASERTRACE and AIRTRACE). He has presented more than 80 technical papers and has been awarded more than 70 patents in Canada, the U.S., and other countries.
In 1989, Barringer officially retired. He died in Golden, Colorado at the age of 84. With this known and so much more to learn about Anthony R. Barringer i would have to say he is on my list for one of the most interesting inventors of his time.




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                                        From Wikipedia, the free encyclopedia

Tuesday, August 16, 2016

Bed Time Story 38

Once upon a time there was a man named Vladimir Pavlovich Barmin and he was a Soviet scientist, designer of the first soviet rocket launch complexes.

 An asteroid 22254 Vladbarmin was named in his honor.

With this known and so much more to learn about Vladimir Barmin i would have to say he is on my list for one of the most intriquing inventors of all time.



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                                       From Wikipedia, the free encyclopedia

Bed Time Story 37

Once upon a time there was a man named John Bardeen and he
was an American physicist and electrical engineer, the only person to have won the Nobel Prize in Physics twice: first in 1956 with William Shockley and Walter Brattain for the invention of the transistor; and again in 1972 with Leon N Cooper and John Robert Schrieffer for a fundamental theory of conventional superconductivity known as the BCS theory.
The transistor revolutionized the electronics industry, allowing the Information Age to occur, and made possible the development of almost every modern electronic device, from telephones to computers to missiles. Bardeen's developments in superconductivity, which won him his second Nobel, are used in Nuclear Magnetic Resonance Spectroscopy (NMR) or its medical sub-tool magnetic resonance imaging (MRI).
In 1990, John Bardeen appeared on LIFE Magazine's list of "100 Most Influential Americans of the Century."John Bardeen was born in Madison, Wisconsin on May 23, 1908.He was the son of Charles Russell Bardeen, the first dean of the University of Wisconsin Medical School.
Bardeen attended the University High School at Madison for several years, but graduated from Madison Central High School in 1923. He graduated from high school at age fifteen, even though he could have graduated several years earlier. His graduation was postponed due to taking additional courses at another high school and also partly because of his mother's death. He entered the University of Wisconsin–Madison in 1923. While in college he joined the Zeta Psi fraternity. He raised the needed membership fees partly by playing billiards. He was initiated as a member of Tau Beta Pi engineering honor society. He chose engineering because he didn't want to be an academic like his father and also because it is mathematical. He also felt that engineering had good job prospects.
Bardeen received his Bachelor of Science degree in electrical engineering in 1928 from the University of Wisconsin–Madison, where he was a classmate of Grant Gale. He graduated in 1928 despite taking a year off during his degree to work in Chicago.He had taken all the graduate courses in physics and mathematics that had interested him, and, in fact, graduated in five years, one more than usual; this allowed him time to also complete a Master's thesis, supervised by Leo J. Peters. He received his Master of Science degree in electrical engineering in 1929 from Wisconsin.
Bardeen stayed on for some time at Wisconsin furthering his studies, but he eventually went to work for Gulf Research Laboratories, the research arm of the Gulf Oil Corporation, based in Pittsburgh. From 1930 to 1933, Bardeen worked there on the development of methods for the interpretation of magnetic and gravitational surveys. He worked as a geophysicist. After the work failed to keep his interest, he applied and was accepted to the graduate program in mathematics at Princeton University.
Bardeen studied both mathematics and physics as a graduate student, ending up writing his thesis on a problem in solid-state physics, under physicist Eugene Wigner. Before completing his thesis, he was offered a position as Junior Fellow of the Society of Fellows at Harvard University in 1935. He spent the next three years there, from 1935 to 1938, working with to-be Nobel laureates in physics John Hasbrouck van Vleck and Percy Williams Bridgman on problems in cohesion and electrical conduction in metals, and also did some work on level density of nuclei. He received his Ph.D. in mathematical physics from Princeton in 1936.
 In October 1945, John Bardeen began work at Bell Labs. Bardeen was a member of a Solid State Physics Group, led by William Shockley and chemist Stanley Morgan. Other personnel working in the group were Walter Brattain, physicist Gerald Pearson, chemist Robert Gibney, electronics expert Hilbert Moore and several technicians. He moved his family to Summit, New Jersey.
The assignment of the group was to seek a solid-state alternative to fragile glass vacuum tube amplifiers. Their first attempts were based on Shockley's ideas about using an external electrical field on a semiconductor to affect its conductivity. These experiments mysteriously failed every time in all sorts of configurations and materials. The group was at a standstill until Bardeen suggested a theory that invoked surface states that prevented the field from penetrating the semiconductor. The group changed its focus to study these surface states, and they met almost daily to discuss the work. The rapport of the group was excellent, and ideas were freely exchanged.By the winter of 1946 they had enough results that Bardeen submitted a paper on the surface states to Physical Review. Brattain started experiments to study the surface states through observations made while shining a bright light on the semiconductor's surface. This led to several more papers (one of them co-authored with Shockley), which estimated the density of the surface states to be more than enough to account for their failed experiments. The pace of the work picked up significantly when they started to surround point contacts between the semiconductor and the conducting wires with electrolytes. Moore built a circuit that allowed them to vary the frequency of the input signal easily and suggested that they use glycol borate (gu), a viscous chemical that didn't evaporate. Finally they began to get some evidence of power amplification when Pearson, acting on a suggestion by Shockley, put a voltage on a droplet of gu placed across a P-N junction.
On December 23, 1947, Bardeen and Brattain—working without Shockley—succeeded in creating a point-contact transistor that achieved amplification. By the next month, Bell Labs' patent attorneys started to work on the patent applications.
Bell Labs' attorneys soon discovered that Shockley's field effect principle had been anticipated and patented in 1930 by Julius Lilienfeld, who filed his MESFET-like patent in Canada on October 22, 1925.
Shockley took the lion's share of the credit in public for the invention of transistor, which led to a deterioration of Bardeen's relationship with Shockley. Bell Labs management, however, consistently presented all three inventors as a team. Shockley eventually infuriated and alienated Bardeen and Brattain, and he essentially blocked the two from working on the junction transistor. Bardeen began pursuing a theory for superconductivity and left Bell Labs in 1951. Brattain refused to work with Shockley further and was assigned to another group. Neither Bardeen nor Brattain had much to do with the development of the transistor beyond the first year after its invention.
The "transistor" (a combination of "transconductance" and "resistor") was 1/50 as large as the vacuum tubes it replaced in televisions and radios and allowed electrical devices to become more compact.
 In 1956, John Bardeen shared the Nobel Prize in Physics with William Shockley of Semiconductor Laboratory of Beckman Instruments and Walter Brattain of Bell Telephone Laboratories "for their researches on semiconductors and their discovery of the transistor effect".
At the Nobel Prize ceremony in Stockholm, Brattain and Shockley received their awards that night from King Gustaf VI Adolf. Bardeen brought only one of his three children to the Nobel Prize ceremony. King Gustav chided Bardeen because of this, and Bardeen assured the King that the next time he would bring all his children to the ceremony. He kept his promise.Bardeen died of heart disease at Brigham and Women's Hospital in Boston, Massachusetts, on January 30, 1991.Although he lived in Champaign-Urbana, he had come to Boston for medical consultation. Bardeen and his wife Jane (1907–1997) are buried in Forest Hill Cemetery, Madison, Wisconsin. They were survived by three children, James & William and Elizabeth Bardeen Greytak, and six grandchildren. With this known and so much more to learn about John Bardeen i would have to say he is on my list for one of the most brilliant inventors of all time.




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                                               From Wikipedia, the free encyclopedia

Bed Tme Story 36

Once upon a time there was a man named  John Barber and he was an English coalmaster and inventor. He was born in Nottinghamshire, but moved to Warwickshire in the 1760s to manage collieries in the Nuneaton area. For a time he lived in Camp Hill House, between Hartshill and Nuneaton, and later lived in Attleborough. He patented several inventions between 1766 and 1792, of which the most remarkable was one for a gas turbine. Unfortunately nothing practical came out of this patent, but Barber was the first man to describe in detail the principle of the gas turbine, and in recent years a working model based on Barber's specification has been built.
In 1791 Barber took out a patent (UK patent no. 1833 – Obtaining and Applying Motive Power, & c. A Method of Rising Inflammable Air for the Purposes of Procuring Motion, and Facilitating Metallurgical Operations) which contained all of the important features of a successful gas turbine. Planned as a method of propelling a "horseless carriage", Barber's design included a chain-driven, reciprocating gas compressor, a combustion chamber, and a turbine.
Barber's turbine was to burn gas obtained from wood, coal, oil, or other substances, heated in a retort or producer, from where the gases were conveyed into a receiver and cooled. Air and gas were then to be compressed in different cylinders and pumped into an "exploder" (combustion chamber) where they were ignited, the mixture of hot gas then being played against the vanes of a paddle wheel. Water was to be injected into the explosive mixture to cool the mouth of the chamber and, by producing steam, to increase the volume of the charge.
Barber’s concept was sound, but given the technology of that day, it was not possible for the device to create sufficient power to both compress the air and the gas and produce useful work. Nevertheless, the credit for the idea that leads to the modern gas turbine can clearly be given to John Barber. In 1972 the Bonn firm Kraftwerk-Union AG showed a working model of Barber's turbine at the Hannover Fair. With this known and so much more to learn about John Barber i would have to say he is on my list for one of the most interesting inventors of all time.



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                                            From Wikipedia, the free encyclopedia

Saturday, August 13, 2016

Bed Time Story 35

Once upon a time there was a man named Guido of Arezzo and he was an Italian music theorist of the Medieval era. He is regarded as the inventor of modern musical notation (staff notation) that replaced neumatic notation; his text, the Micrologus, was the second-most-widely distributed treatise on music in the Middle Ages (after the writings of Boethius).
Guido was a monk of the Benedictine order from the Italian city-state of Arezzo. Recent research has dated his Micrologus to 1025 or 1026; since Guido stated in a letter that he was thirty-four when he wrote it, his birthdate is presumed to be around 991 or 992. His early career was spent at the monastery of Pomposa, on the Adriatic coast near Ferrara. While there, he noted the difficulty that singers had in remembering Gregorian chants.
He came up with a method for teaching the singers to learn chants in a short time, and quickly became famous throughout north Italy. However, he attracted the hostility of the other monks at the abbey, prompting him to move to Arezzo, a town which had no abbey, but which did have a large group of cathedral singers, whose training Bishop Tedald invited him to conduct.
While at Arezzo, he developed new techniques for teaching, such as staff notation and the use of the "ut–re–mi–fa–so–la" (do–re–mi–fa–so–la) mnemonic (solmization). The ut–re–mi-fa-so-la syllables are taken from the initial syllables of each of the first six half-lines of the first stanza of the hymn Ut queant laxis, whose text is attributed to the Italian monk and scholar Paulus Diaconus (though the musical line either shares a common ancestor with the earlier setting of Horace's "Ode to Phyllis" (Odes 4.11) recorded in the Montpellier manuscript H425, or may even have been taken from it.) Giovanni Battista Doni is known for having changed the name of note "Ut" (C), renaming it "Do" (in the "Do Re Mi ..." sequence known as solfège). A seventh note, "Si" (from the initials for "Sancta Iohannes," Latin for St. John the Baptist) was added shortly after to complete the diatonic scale. In Anglophone countries, "Si" was changed to "Ti" by Sarah Glover in the nineteenth century so that every syllable might begin with a different letter."Ti" is used in tonic sol-fa and in the song "Do-Re-Mi".
The Micrologus, written at the cathedral at Arezzo and dedicated to Tedald, contains Guido's teaching method as it had developed by that time. Soon it had attracted the attention of Pope John XIX, who invited Guido to Rome. Most likely he went there in 1028, but he soon returned to Arezzo, due to his poor health. It was then that he announced in a letter to Michael of Pomposa ("Epistola de ignoto cantu") his discovery of the "ut–re–mi" musical mnemonic. Little is known of him after this time. With This known and so much more to learn about Guido of Arezzo I would say he is on my list of one of the most interesting inventors of all time.





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Tuesday, August 9, 2016

Bed Time Story 34

Once upon a time there was a man named George Charles Ballas, Sr. and he was an American entrepreneur. He invented the first string trimmer, known as the Weed Eater in 1971. He is the father of ballroom dancer, Corky Ballas, and grandfather of professional dancer Mark Ballas of Dancing with the Stars.Ballas was born in Ruston, Louisiana. He was the son of Charles Ballas and Maria (née Lymnaos), who were Greek immigrants that ran a restaurant. His brother is Peter Ballas.
He enlisted in the United States Army at the age of 17 in 1942 during World War II and was a bombardier. Ballas would later serve in the Korean War.He married Maria Marulanda in 1951.
He had five children, Corky Ballas, George Ballas Jr., Michelle Ballas Pritchard, Maria Ballas Jamail, and Lillian Ballas Miles.His grandson, Mark Ballas is a dancer in Dancing with the Stars. He had six other grandchildren.Ballas got the idea for the trimmer while driving through an automatic car wash, where the rotating brushes gave him an idea. Using a tin can laced with fishing line and an edge trimmer, he tried out his idea, which worked. After some refinements, he shopped it around to several tool makers, who all rejected his invention. He went on to develop the garden tool himself. The first year, sales were over a half million dollars. By 1977 they were $80 million, and Ballas sold his company the following year to Emerson Electric Company. With this known and so much more to learn about Goerge Charles Ballas Sr. i would say he is on my list for one of the most interesting inventors.



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                                          From Wikipedia, the free encyclopedia

Saturday, August 6, 2016

Bed Time Story 33

Once upon a time there was a man named Charles Babbage and he was an English polymath. A mathematician, philosopher, inventor and mechanical engineer, Babbage, along with Ada Lovelace, is best remembered for originating the concept of a programmable computer.
Considered by some to be a "father of the computer",Babbage, along with Lovelace, is credited with inventing the first mechanical computer that eventually led to more complex designs. His varied work in other fields has led him to be described as "pre-eminent" among the many polymaths of his century.
Parts of Babbage's uncompleted mechanisms are on display in the Science Museum in London. In 1991, a perfectly functioning difference engine was constructed from Babbage's original plans. Built to tolerances achievable in the 19th century, the success of the finished engine indicated that Babbage's machine would have worked.Babbage's birthplace is disputed, but according to the Oxford Dictionary of National Biography he was most likely born at 44 Crosby Row, Walworth Road, London, England. A blue plaque on the junction of Larcom Street and Walworth Road commemorates the event.His date of birth was given in his obituary in The Times as 26 December 1792; but then a nephew wrote to say that Babbage was born one year earlier, in 1791. The parish register of St. Mary's Newington, London, shows that Babbage was baptised on 6 January 1792, supporting a birth year of 1791.Babbage was one of four children of Benjamin Babbage and Betsy Plumleigh Teape. His father was a banking partner of William Praed in founding Praed's & Co. of Fleet Street, London, in 1801. In 1808, the Babbage family moved into the old Rowdens house in East Teignmouth. Around the age of eight, Babbage was sent to a country school in Alphington near Exeter to recover from a life-threatening fever. For a short time he attended King Edward VI Grammar School in Totnes, South Devon, but his health forced him back to private tutors for a time.Babbage then joined the 30-student Holmwood academy, in Baker Street, Enfield, Middlesex, under the Reverend Stephen Freeman. The academy had a library that prompted Babbage's love of mathematics. He studied with two more private tutors after leaving the academy. The first was a clergyman near Cambridge; through him Babbage encountered Charles Simeon and his evangelical followers, but the tuition was not what he needed.He was brought home, to study at the Totnes school: this was at age 16 or 17. The second was an Oxford tutor, under whom Babbage reached a level in Classics sufficient to be accepted by Cambridge.Babbage arrived at Trinity College, Cambridge, in October 1810.He was already self-taught in some parts of contemporary mathematics; he had read in Robert Woodhouse, Joseph Louis Lagrange, and Marie Agnesi. As a result, he was disappointed in the standard mathematical instruction available at Cambridge.Babbage, John Herschel, George Peacock, and several other friends formed the Analytical Society in 1812; they were also close to Edward Ryan. As a student, Babbage was also a member of other societies such as The Ghost Club, concerned with investigating supernatural phenomena, and the Extractors Club, dedicated to liberating its members from the madhouse, should any be committed to one.In 1812 Babbage transferred to Peterhouse, Cambridge. He was the top mathematician there, but did not graduate with honours. He instead received a degree without examination in 1814. He had defended a thesis that was considered blasphemous in the preliminary public disputation; but it is not known whether this fact is related to his not sitting the examination.After Cambridge he , considering only his reputation, Babbage quickly made progress. He lectured to the Royal Institution on astronomy in 1815, and was elected a Fellow of the Royal Society in 1816. After graduation, on the other hand, he applied for positions unsuccessfully, and had little in the way of career. In 1816 he was a candidate for a teaching job at Haileybury College; he had recommendations from James Ivory and John Playfair, but lost out to Henry Walter. In 1819, Babbage and Herschel visited Paris and the Society of Arcueil, meeting leading French mathematicians and physicists.That year Babbage applied to be professor at the University of Edinburgh, with the recommendation of Pierre Simon Laplace; the post went to William Wallace.With Herschel, Babbage worked on the electrodynamics of Arago's rotations, publishing in 1825. Their explanations were only transitional, being picked up and broadened by Michael Faraday. The phenomena are now part of the theory of eddy currents, and Babbage and Herschel missed some of the clues to unification of electromagnetic theory, staying close to Ampère's force law.
Babbage purchased the actuarial tables of George Barrett, who died in 1821 leaving unpublished work, and surveyed the field in 1826 in Comparative View of the Various Institutions for the Assurance of Lives.This interest followed a project to set up an insurance company, prompted by Francis Baily and mooted in 1824, but not carried out. Babbage did calculate actuarial tables for that scheme, using Equitable Society mortality data from 1762 onwards.
During this whole period Babbage depended awkwardly on his father's support, given his father's attitude to his early marriage, of 1814: he and Edward Ryan wedded the Whitmore sisters. He made a home in Marylebone in London, and founded a large family. On his father's death in 1827, Babbage inherited a large estate (value around £100,000, equivalent to £7.81 million in today's pounds), making him independently wealthy.After his wife's death in the same year he spent time travelling. In Italy he met Leopold II, Grand Duke of Tuscany, foreshadowing a later visit to Piedmont. In April 1828 he was in Rome, and relying on Herschel to manage the difference engine project, when he heard that he had become professor at Cambridge, a position he had three times failed to obtain (in 1820, 1823 and 1826).Babbage lived and worked for over 40 years at 1 Dorset Street, Marylebone, where he died, at the age of 79, on 18 October 1871; he was buried in London's Kensal Green Cemetery. According to Horsley, Babbage died "of renal inadequacy, secondary to cystitis." He had declined both a knighthood and baronetcy. He also argued against hereditary peerages, favouring life peerages instead. With this known and a whole lot more to know about Charles Babbage i would have to say he is on my list for one of the most creditable inventors of all time.





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Wednesday, August 3, 2016

Bed Time Story 32

Once upon a time there was a man named Ralph Henry Baer and he was a German-born American video game developer, inventor, and engineer, and was known as "The Father of Video Games" due to his many contributions to games and the video game industry in the latter half of the 20th century. Born in Germany, he and his family fled to the United States before the outbreak of World War II, where he changed his name and later served the American war effort. Afterwards, he pursued work in electronics. In 1951, while working at Loral, he was asked to build "the best television set in the world". He proposed the idea of playing games on television screens, but his boss rejected it. Later in 1966, while working at Sanders Associates, his 1951 idea came back to his mind, and he would go on to develop eight hardware prototypes. The last two (the Brown Box and its de/dt extension) would become the first home video game console, the Magnavox Odyssey. He would contribute to the development of other consoles and consumer game units. In February, 2006, he was awarded the National Medal of Technology for "his groundbreaking and pioneering creation, development and commercialization of interactive video games, which spawned related uses, applications, and mega-industries in both the entertainment and education realms". Baer was born in 1922 to Lotte (Kirschbaum) and Leo Baer, a Jewish family living in Germany, and was originally named Rudolf Heinrich Baer. At age 11, he was expelled from school because of his ancestry and had to go to an all-Jewish school. His father worked in a shoe factory in Pirmasens at the time. Baer's family, fearing increasing persecution, moved from Germany to New York City in 1938 two months prior to Kristallnacht while Baer was a teenager. Baer would later become a naturalized United States citizen. In the United States, he was self-taught and worked in a factory for a weekly wage of twelve dollars; upon seeing an advertisement at a bus station for education in the budding electronics field, he quit his job to study in the field. He graduated from the National Radio Institute as a radio service technician in 1940. In 1943 he was drafted to fight in World War II and assigned to military intelligence at the United States Army headquarters in London. With his secondary education funded by the G.I. Bill, Baer graduated with a Bachelor of Science degree in Television Engineering (unique at the time) from the American Television Institute of Technology in Chicago in 1949. In 1949, Baer went to work as chief engineer for a small electro-medical equipment firm, Wappler, Inc., where he designed and built surgical cutting machines, epilators, and low frequency pulse generating muscle-toning equipment. In 1951, Baer went to work as a senior engineer for Loral Electronics in Bronx, New York, where he designed power line carrier signaling equipment for IBM. From 1952 to 1956, he worked at Transitron, Inc., in New York City as a chief engineer and later as vice president. He started his own company before joining defense contractor Sanders Associates in Nashua, New Hampshire (now part of BAE Systems Inc.) in 1956, where he stayed until retiring in 1987. Baer's primary responsibility at Sanders was overseeing about 500 engineers in the development of electronic systems for military applications. However, out of this work came the concept of a home video game console; he would go on to create the basis for the first commercial units, among several other patented advances in video games and electronic toys. Baer married Dena Whinston in 1952; she died in 2006. They had three children during their marriage, and at the time of Baer's death, he had four grandchildren. Baer died at his home in Manchester, New Hampshire on December 6, 2014, according to family and friends close to him. With this being so and so much more to learn about Ralph Henry Baer i would have to say he is on my list for one of the most interesting inventors of all time.



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                                                From Wikipedia, the free encyclopedia

Tuesday, August 2, 2016

Bed Time Story 31

Once upon a time there was a man named John Vincent Atanasoff and he was an American physicist and inventor, best known for inventing the first electronic digital computer.Atanasoff invented the first electronic digital computer in the 1930s at Iowa State College. Challenges to his claim were resolved in 1973 when the Honeywell v. Sperry Rand lawsuit ruled that Atanasoff was the inventor of the computer. His special-purpose machine has come to be called the Atanasoff–Berry Computer.
Atanasoff, of Bulgarian, French and Irish ancestry, was born on October 4, 1903 in Hamilton, New York to an electrical engineer and a school teacher. Atanasoff's father, Ivan Atanasoff was born in 1876 in the village of Boyadzhik, close to Yambol, Bulgaria. While Ivan was still an infant, Ivan's own father was killed by Ottoman soldiers after the Bulgarian April Uprising.In 1889, Ivan Atanasov immigrated to the United States with his uncle. Atanasoff's mother, Iva Lucena Purdy, was a teacher of mathematics.
Atanasoff was raised by his parents in Brewster, Florida. At the age of nine he learned to use a slide rule, followed shortly by the study of logarithms, and subsequently completed high school at Mulberry High School in two years. In 1925, Atanasoff received his bachelor of science degree in electrical engineering from the University of Florida, graduating with straight A's.
He continued his education at Iowa State College and in 1926 earned a master's degree in mathematics. He completed his formal education in 1930 by earning a Ph.D. in theoretical physics from the University of Wisconsin–Madison with his thesis, The Dielectric Constant of Helium. Upon completion of his doctorate, Atanasoff accepted an assistant professorship at Iowa State College in mathematics and physics.
Partly due to the drudgery of using the mechanical Monroe calculator, which was the best tool available to him while he was writing his doctoral thesis, Atanasoff began to search for faster methods of computation. At Iowa State, Atanasoff researched the use of slaved Monroe calculators and IBM tabulators for scientific problems. In 1936 he invented an analog calculator for analyzing surface geometry. The fine mechanical tolerance required for good accuracy pushed him to consider digital solutions.
With a grant of $650 received in September 1939 and the assistance of his graduate student Clifford Berry, the Atanasoff–Berry Computer (ABC) was prototyped by November of that year. According to Atanasoff, several operative principles of the ABC were conceived by him during the winter of 1938 after a drive to Rock Island, Illinois.
The key ideas employed in the ABC included binary math and Boolean logic to solve up to 29 simultaneous linear equations. The ABC had no central processing unit (CPU), but was designed as an electronic device using vacuum tubes for digital computation. It also used separate regenerative capacitor memory that operated by a process still used today in DRAM memory. With this being so and so much more still to learn about John Atanasoff I would say he is on my list of one of the most notable inventors in the world.



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Monday, August 1, 2016

Bed Time Story 30

Once upon a time there was a man named Joseph Aspdin and he was an English cement manufacturer who obtained the patent for Portland cement on 21 October 1824. Aspdin (or Aspden) was the eldest of the six children of Thomas Aspdin, a bricklayer living in the Hunslet district of Leeds, Yorkshire. He was baptised on Christmas Day, 1778. He entered his father's trade, and married Mary Fotherby at Leeds Parish Church (the Parish Church of St Peter at Leeds) on 21 May 1811.
By 1817 he had set up in business on his own in central Leeds. He must have experimented with cement manufacture during the next few years, because on 21 October 1824 he was granted the British Patent BP 5022 entitled An Improvement in the Mode of Producing an Artificial Stone, in which he coined the term "Portland cement" by analogy with the Portland stone, an oolitic limestone that is quarried on the channel coast of England, on the Isle of Portland in Dorset. See below for the text of the patent.
Almost immediately after this, in 1825, in partnership with a Leeds neighbour, William Beverley, he set up a production plant for this product in Kirkgate, Wakefield. Beverley stayed in Leeds, but Aspdin and his family moved to Wakefield (about nine miles away) at this point. He obtained a second patent, for a method of making lime, in 1825. The Kirkgate plant was closed in 1838 after compulsory purchase of the land by the Manchester and Leeds Railway Company, and the site was cleared. He moved his equipment to a second site nearby in Kirkgate.
At this time his eldest son James was working as an accountant in Leeds, and his younger son, William, was running the plant. However, in 1841, Joseph went into partnership with James, and posted a notice that William had left, and that the company would not be responsible for his debts, stating "I think it right to give notice that my late agent, William Aspdin, is not now in my employment, and that he is not authorised to receive any money, nor contract any debts on my behalf or on behalf of the new firm."
In 1843, William established his own plant at Rotherhithe, near London. There he introduced a new and substantially stronger cement, using a modified recipe for cement-making, the first "modern" Portland cement. In 1844 Joseph retired, transferring his share of the business to James. James moved to a third site at Ings Road in 1848, and this plant continued in operation until 1900. Joseph Aspdin died on 20 March 1855, at home in Wakefield.
 Aspdin called the product Portland cement because set mortar made from it resembled “the best Portland stone". Portland stone was the most prestigious building stone in use in England at the time. The patent clearly does not describe the product recognised as Portland cement today. The product was aimed at the market for stuccos and architectural pre-cast mouldings, for which a fast-setting, low-strength cement was required (see cement). It was fired at low temperature (below 1250 °C) and therefore contained no alite. With this known and so much more to learn about Joseph Aspdin i would say he is on my list for one of the most interesting inventors.



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Friday, July 29, 2016

Bed Time Story 29

Once upon a time there was a man named Neil Arnott and he was a Scottish physician.Neil Arnott FRS was a distinguished graduate of Marischal College, University of Aberdeen (AM, 1805; MD 1814) and subsequently studied in London under Sir Everard Home (1756–1832), through whom he obtained, when only eighteen, the appointment of full surgeon to an East Indiaman. After making two voyages to China acting as a surgeon in the service of the British East India Company (1807-9 and 1810–11), he settled in London where he practised from 1811–1854, and quickly acquired a high reputation. He gave lectures at the Philomathic Institution published as Elements of physics (1827). He was one of the founders of the University of London, 1836. Within a few years he was made physician to the French and Spanish embassies, and in 1837 he became physician extraordinary to the Queen. He was elected to the Fellow of the Royal Society (FRS) in 1838. He was a strong advocate of scientific, as opposed to purely classical, education; and he manifested interest in natural philosophy by the gift of 2,000 pounds to each of the four universities of Scotland and to the University of London, to promote its study in the experimental and practical form.From his earliest youth, Arnott had an intense love of natural philosophy, and to this added an inventiveness which served him in good stead in his profession and yielded the Arnott waterbed in 1832, which later was developed into a water-filled chair intended to prevent seasickness. Other inventions include the Arnott ventilator, the Arnott stove, etc.This being so and with so much more to learn about Neil Arnott i would have to say he is on my list for one of the worlds most needed inventors.


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Thursday, July 28, 2016

Bed TIme Story 28

Once upon a time there was a man named Edwin Howard Armstrong and he was an American electrical engineer and inventor, best known for developing FM (frequency modulation) radio. He held 42 patents and received numerous awards, including the first Medal of Honor awarded by the Institute of Radio Engineers (now IEEE), the French Legion of Honor, the 1941 Franklin Medal and the 1942 Edison Medal. He was inducted into the National Inventors Hall of Fame and included in the International Telecommunication Union's roster of great inventors.Armstrong was born in the Chelsea district of New York City, the oldest of John and Emily (Smith) Armstrong's three children. His father began working at a young age at the American branch of the Oxford University Press, which published bibles and standard classical works, eventually advancing to the position of vice president. His parents first met at the North Presbyterian Church, located at 31st Street and Ninth Avenue. His mother's family had strong ties to Chelsea, and an active role in church functions. When the church moved north, the Smiths and Armstrongs followed, and in 1895 the Armstrong family moved from their brownstone row house at 347 West 29th Street to a similar house at 26 West 97th Street in the Upper West Side.The family was comfortably middle class, however, at the age of eight Armstrong contracted a disease, then known as St. Vitus' Dance, which left him with a lifelong physical tic when excited or under stress. Due to this illness he was withdrawn from public school and was home-tutored for two years. In order to improve his health, the Armstrong family moved to a house which overlooked the Hudson River, at 1032 Warburton Avenue in Yonkers. The Smith family subsequently moved next door.Armstrong's tic and the time he was removed from school led him to become socially withdrawn. From an early age he showed an interest in electrical and mechanical devices, particularly trains. He loved heights and constructed a makeshift backyard antenna tower that included a bosun's chair for hoisting himself up and down its length, to the concern of neighbors. Much of his early research was conducted in the attic of his parent's house.In 1909 Armstrong enrolled at Columbia University in New York City, where he became a member of the Epsilon Chapter of the Theta Xi engineering fraternity, and studied under Professor Michael Pupin at the Hartley Laboratories, a separate research unit at Columbia. Another of his instructors, Professor John H. Morecroft, later remembered Armstrong as being intensely focused on the topics that interested him, but somewhat indifferent to the rest of his studies. He was known for challenging conventional wisdom and being quick to question the opinions of both professors and peers. In one case he recounted how he tricked an instructor he disliked into receiving a severe electrical shock. He also stressed the practical over the theoretical, stating that progress was more likely the product of experimentation and work based on physical reasoning than on mathematical calculation and formulae (known as part of "mathematical physics").
Armstrong graduated from Columbia in 1913, earning an electrical engineering degree. He later received two honorary doctorates, from Columbia in 1929, and Muhlenberg College in 1941. In 1934, he filled the vacancy left by John H. Morecroft's death, receiving an appointment as a Professor of Electrical Engineering at Columbia, a position he held the remainder of his life.Following college graduation, he received a $600 one-year appointment as a laboratory assistant at Columbia, after which he nominally worked as a research assistant, for a salary of $1 a year, under Professor Pupin. Unlike most engineers, Armstrong never became a corporate employee. He set up a self-financed independent research and development laboratory at Columbia, and owned his patents outright.with this being so and so much more to learn about Edwin Howard Armstrong i would have to say he is on my list for one of the most important inventors in history.




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Wednesday, July 27, 2016

Bed Time Story 27

Once upon a time there was a man named Momofuku Ando and he was a Japanese inventor and businessman who founded Nissin Food Products Co., Ltd.. He is known as one of the inventors of instant noodles, instant ramen, and Cup Noodles. Ando was born Go Pek-Hok (Chinese: 吳百福; Pe̍h-ōe-jī: Gô Pek-hok) in 1910 into a wealthy Taiwanese family in Kagi-chō (嘉義廳?) (modern-day Chiayi), Japanese-era Taiwan, and raised by his grandparents within the city walls of Tainan-chō (臺南廳?) (modern-day Tainan) following the deaths of his parents. His grandparents owned a small textiles store, which inspired him, at the age of 22, to start his own textiles company, using 190,000 yen, in Eiraku-chō (永樂町?), Daitōtei, Taihoku-shi (modern-day Taipei). In 1933, Ando traveled to Osaka where he established a clothing company while studying economics at Ritsumeikan University. After World War II, Ando became a Japanese citizen and moved to Japan, where he entered Ritsumeikan University and at the same time founded a small merchandising firm in Osaka with the inheritance from his family. "Momofuku" is the Japanese reading of his Chinese given name (百福; Pek-hok), while Andō (安藤) is a common Japanese surname. He was convicted of tax evasion in 1948 and served two years in jail. In his biography, Ando said he had provided scholarships for students, which at the time was a form of tax evasion. After he lost his company due to a chain reaction bankruptcy, Ando founded what was to become Nissin in Ikeda, Osaka, Japan, starting off as a small family-run company producing salt. In 1964, seeking a way to promote the instant noodle industry, Ando founded the Instant Food Industry Association, which set guidelines for fair competition and product quality, introducing several industry standards such as the inclusion of production dates on packaging and the "fill to" line. He was also the chairman of the International Ramen Manufacturers' Association. The Momofuku Ando Instant Ramen Museum is named after him. Ando died of heart failure on January 5, 2007 at a hospital in Ikeda, Osaka Prefecture at the age of 96. With this being so and so much more to learn about Momofuku Ando i would say he is on my list for one of the most interesting inventors in history.



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