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Birth of Nicholas Joseph Callan, Priest & Scientist

Father Nicholas Joseph Callan, Irish priest and scientist, is born on December 22, 1799, in Darver, County Louth. He is Professor of Natural Philosophy in Maynooth College in Maynooth, County Kildare from 1834, and is best known for his work on the induction coil.

Callan attends school at an academy in Dundalk. His local parish priest, Father Andrew Levins, then takes him in hand as an altar boy and Mass server, and sees him start the priesthood at Navan seminary. He enters Maynooth College in 1816. In his third year at Maynooth, he studies natural and experimental philosophy under Dr. Cornelius Denvir. He introduces the experimental method into his teaching, and has an interest in electricity and magnetism.

Callan is ordained a priest in 1823 and goes to Rome to study at Sapienza University, obtaining a doctorate in divinity in 1826. While in Rome he becomes acquainted with the work of the pioneers in electricity such as Luigi Galvani (1737–1798), who is a pioneer in bioelectricity, and Alessandro Volta (1745–1827), who is known especially for the development of the electric battery. In 1826, he returns to Maynooth as the new Professor of Natural Philosophy (now called physics), where he also begins working with electricity in his basement laboratory at the college.

Influenced by William Sturgeon and Michael Faraday, Callan begins work on the idea of the induction coil in 1834. He invents the first induction coil in 1836. An induction coil produces an intermittent high voltage alternating current from a low voltage direct current supply. It has a primary coil consisting of a few turns of thick wire wound around an iron core and subjected to a low voltage (usually from a battery). Wound on top of this is a secondary coil made up of many turns of thin wire. An iron armature and make-and-break mechanism repeatedly interrupts the current to the primary coil, producing a high voltage, rapidly alternating current in the secondary circuit.

Callan invents the induction coil because he needs to generate a higher level of electricity than currently available. He takes a bar of soft iron, about 2 feet long, and wraps it around with two lengths of copper wire, each about 200 feet long. He connects the beginning of the first coil to the beginning of the second. Finally, he connects a battery, much smaller than the enormous contrivance just described, to the beginning and end of winding one. He finds that when the battery contact is broken, a shock can be felt between the first terminal of the first coil and the second terminal of the second coil.

Further experimentation shows how the coil device can bring the shock from a small battery up the strength level of a big battery. So Callan tries making a bigger coil. With a battery of only 14 seven-inch plates, the device produces power enough for an electric shock “so strong that a person who took it felt the effects of it for several days.” He thinks of his creation as a kind of electromagnet, but what he actually makes is a primitive induction transformer.

Callan’s induction coil also uses an interrupter that consists of a rocking wire that repeatedly dips into a small cup of mercury (similar to the interrupters used by Charles Grafton Page). Because of the action of the interrupter, which can make and break the current going into the coil, he calls his device the “repeater.” Actually, this device is the world’s first transformer. He induces a high voltage in the second wire, starting with a low voltage in the adjacent first wire. The faster he interrupts the current, the bigger the spark. In 1837 he produces his giant induction machine using a mechanism from a clock to interrupt the current 20 times a second. It generates 15-inch sparks, an estimated 60,000 volts and the largest artificial bolt of electricity then seen.

Callan experiments with designing batteries after he finds the models available to him at the time to be insufficient for research in electromagnetism. Some previous batteries had used rare metals such as platinum or unresponsive materials like carbon and zinc. He finds that he can use inexpensive cast iron instead of platinum or carbon. For his Maynooth battery he uses iron casting for the outer casing and places a zinc plate in a porous pot (a pot that had an inside and outside chamber for holding two different types of acid) in the centre. Using a single fluid cell he disposes of the porous pot and two different fluids. He is able to build a battery with just a single solution.

While experimenting with batteries, Callan also builds the world’s largest battery at that time. To construct this battery, he joins together 577 individual batteries (“cells“), which use over 30 gallons of acid. Since instruments for measuring current or voltages have not yet been invented, he measures the strength of a battery by measuring how much weight his electromagnet can lift when powered by the battery. Using his giant battery, his electromagnet lifts 2 tons. The Maynooth battery goes into commercial production in London. He also discovers an early form of galvanisation to protect iron from rusting when he is experimenting on battery design, and he patents the idea.

Callan dies at the age of 64 in Maynooth, County Kildare, on January 10, 1864. He is buried in the cemetery in St. Patrick’s College, Maynooth.

The Callan Building on the north campus of NUI Maynooth, a university which is part of St. Patrick’s College until 1997, is named in his honour. In addition, Callan Hall in the south campus, is used through the 1990s for first year science lectures including experimental & mathematical physics, chemistry and biology. The Nicholas Callan Memorial Prize is an annual prize awarded to the best final year student in Experimental Physics.


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Birth of Thomas Andrews, Chemist & Physicist

Thomas Andrews FRS FRSE, chemist and physicist who does important work on phase transitions between gases and liquids, is born in Belfast on December 19, 1813. He is a longtime professor of chemistry at Queen’s University Belfast.

Andrews’ father is a linen merchant. He attends the Belfast Academy and the Royal Belfast Academical Institution, where at the latter of which he studies mathematics under James Thomson. In 1828 he goes to the University of Glasgow to study chemistry under Professor Thomas Thomson, then studies at Trinity College, Dublin, where he gains distinction in classics as well as in science. Finally, at University of Edinburgh in 1835, he is awarded a doctorate in medicine.

Andrews begins a successful medical practice in his native Belfast in 1835, also giving instruction in chemistry at the Academical Institution. In 1842, he marries Jane Hardie Walker (1818–1899). They have six children, including the geologist Mary Andrews. In 1845 he is appointed vice-president of the newly established Queen’s University Belfast, and professor of chemistry there. He holds these two offices until his retirement in 1879 at age 66.

Andrews first becomes known as a scientific investigator with his work on the heat developed in chemical actions, for which the Royal Society awards him a Royal Medal in 1844. Another important investigation, undertaken in collaboration with Peter Guthrie Tait, is devoted to ozone.

Andrews’ reputation mainly rests on his work with liquefaction of gases. In the 1860s he carries out a very complete inquiry into the gas laws, expressing the relations of pressure, temperature, and volume in carbon dioxide. In particular, he establishes the concepts of critical temperature and critical pressure, showing that a substance passes from vapor to liquid state without any breach of continuity.

In Andrews’ experiments on phase transitions, he shows that carbon dioxide may be carried from any of the states we usually call liquid to any of those we usually call gas, without losing homogeneity. The mathematical physicist Josiah Willard Gibbs cites these results in support of the Gibbs free energy equation. They also set off a race among researchers to liquify various other gases. In 1877-78 Louis Paul Cailletet is the first to liquefy oxygen.

Andrews dies in Belfast on November 26, 1885, and is buried in the Borough Cemetery in the city.


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Birth of Thomas Romney Robinson, Astronomer & Physicist

Reverend John Thomas Romney Robinson, 19th-century astronomer and physicist usually referred to as Thomas Romney Robinson, was born at St. Anne’s in Dublin on April 23, 1792. He is the longtime director of the Armagh Observatory, one of the chief astronomical observatories in the United Kingdom at the time. He is remembered as the inventor in 1846 of the Robinson 4-cup anemometer, a device for measuring the speed of the wind.

Robinson is the son of the English portrait painter Thomas Robinson (d.1810) and his wife, Ruth Buck (d.1826). He is educated at Belfast Academy then studies Divinity at Trinity College Dublin, where he is elected a Scholar in 1808, graduating BA in 1810 and obtaining a fellowship in 1814, at the age of 22. He is for some years a deputy professor of natural philosophy (physics) at Trinity.

In 1823, at the age of 30, Robinson gains the appointment of astronomer at the Armagh Observatory. From this point on he always resides at the Armagh Observatory, engaged in researches connected with astronomy and physics, until his death in 1882. Having also been ordained as an Anglican priest while at Trinity, he obtains the church livings of the Anglican Church at Enniskillen and at Carrickmacross in 1824.

During the 1840s and 1850s Robinson is a frequent visitor to the world’s most powerful telescope of that era, the so-called Leviathan of Parsonstown telescope, which had been built by Robinson’s friend and colleague William Parsons, 3rd Earl of Rosse. He is active with Parsons in interpreting the higher-resolution views of the night sky produced by Parsons’ telescope, particularly with regard to the galaxies and nebulae and he publishes leading-edge research reports on the question.

Back at his own observatory in Armagh, Robinson compiles a large catalogue of stars and writes many related reports. In 1862 he is awarded a Royal Medal “for the Armagh catalogue of 5345 stars, deduced from observations made at the Armagh Observatory, from the years 1820 up to 1854; for his papers on the construction of astronomical instruments in the memoirs of the Astronomical Society, and his paper on electromagnets in the Transactions of the Royal Irish Academy.”

Robinson is president of the Royal Irish Academy from 1851 to 1856, and is a long-time active organiser in the British Association for the Advancement of Science. He is a friend of Charles Babbage, who says was “indebted” for having reminded him about the first time he came up with the idea of the calculating machine.

Robinson marries twice, first to Eliza Isabelle Rambaut (d.1839) and secondly to Lucy Jane Edgeworth (1806–1897), the lifelong disabled daughter of Richard Lovell Edgeworth. His daughter marries the physicist George Gabriel Stokes. Stokes frequently visits Robinson in Armagh in Robinson’s later years.

Robinson dies in Armagh, County Armagh at the age of 89 on February 28, 1882.

The crater Robinson on the Moon is named in his honour.


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Birth of Physicist Daniel Joseph Bradley

Daniel Joseph Bradley, physicist and Emeritus Professor of Optical Electronics at Trinity College, Dublin, is born on January 18, 1928 in Derry, County Londonderry, Northern Ireland.

Bradley is one of four surviving children of John and Margaret Bradley, Lecky Road, Derry. He leaves school to work as a telegraph boy but returns to education at St. Columb’s College. Following training as a teacher at St. Mary’s Training College, Belfast, he qualifies in 1947. While teaching in a primary school in Derry he studies for a degree in mathematics as an external student of the University of London, and is awarded a degree in 1953.

Moving to London where he teaches mathematics in a grammar school, Bradley decides to register for an evening course at Birkbeck College. His first choice is mathematics but as he already has a degree in the subject the admissions staff suggests that he study physics. In 1957, after four years of part-time study, he is awarded a Bachelor of Science degree in physics by Birkbeck, achieving the highest marks in his final exams in the University of London overall. He next joins Royal Holloway College as an assistant lecturer and simultaneously enrolls as a PhD student, working on Fabry–Pérot interferometer etalon-based high-resolution spectroscopy supervised by Samuel Tolansky. He receives a PhD in 1961.

Bradley is a pioneer of laser physics, and his work on the development of ultra-fast pulsed lasers adds a new and vitally important element to the capabilities of this new type of light source. In particular, working on dye lasers, he produces pulses of light as short as one picosecond (one picosecond is to a second as a second is to 31,800 years). His work paves the way for the completely new field of non-linear optical interactions. In addition, he inspires a new generation of laser scientists in Ireland and the UK, many of whom are international leaders in their fields.

Appointed to a lectureship in the physics department at Imperial College London, Bradley sets up a research programme in UV solar spectroscopy using rocket technology to reach high altitudes.

In 1963 Bradley begins work in laser physics but returns to Royal Holloway College as a reader one year later. In 1966 he is appointed professor and head of department at Queen’s University, Belfast. There he quickly establishes a space research group of international standing to do high-resolution solar spectroscopy. He attracts significant funding from a variety of agencies, allowing him to build his department into one of the world’s leading laser research centres, involving a total of 65 scientists. However, he leaves Belfast because of fears for his family’s safety as political violence escalates in the early 1970s amidst The Troubles.

Bradley returns to Imperial College London in 1973 to a chair in laser physics and heads a group in optical physics, laser physics and space optics. He is head of the Physics department from 1976 to 1980 but is frustrated by cutbacks and a rule governing the ratio of senior to junior positions, one consequence of which is that he is unable to maintain a long-established chair in optical design. He is also critical of the college administration’s handling of some departmental grant applications. He resigns in 1980 and moves to Dublin.

Among Bradley’s many lasting contributions to laser research in the UK is the setting up of one of the world’s leading research facilities for laser research, the Central Laser Facility at the Rutherford Appleton Laboratory (RAL).

Arriving at Trinity College, Dublin, Bradley decides the time is ripe to move on from laser research and development into laser applications. In 1982, with Dr. John Kelly, a chemist, and Dr. David McConnell, a geneticist, he forms a team which wins funding for a project using laser techniques to explore the structure of organic molecules like DNA and proteins. Unfortunately, however, his work at Trinity is cut short by ill health and he retires in 1984. His research on semiconductor lasers is carried on and this work on developing widely tuneable lasers for optical communications systems continues.

A member of the Royal Irish Academy, Bradley is Fellow Emeritus of Trinity College Dublin, and holds fellowships of the Royal Society, The Optical Society of America and Institute of Physics. Through time the ravages of his illness restricts his travelling and eventually he is cared for in a residential home in Dublin, where he passes away on February 7, 2010.


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Shaw’s “Too True to Be Good” Premieres in New York City

george-bernard-shaw-2Too True to Be Good (1932), a comedy written by playwright George Bernard Shaw premieres at the Guild Theatre in New York City on April 4, 1932. Subtitled “A Collection of Stage Sermons by a Fellow of the Royal Society of Literature,” it moves from surreal allegory to the “stage sermons” in which characters discuss political, scientific and other developments of the day. The second act of the play contains a character, Private Napoleon Meek, based on Shaw’s friend T. E. Lawrence.

The play explicitly deals with the existential crisis that hit Europe after the end of World War I, especially the emergence of a “modernist” culture fueled by uncertainties created by Freudian psychology and Albert Einstein‘s new physics. The whole of the second and third acts of the play have often been interpreted as a dream of escape occurring in the mind of the feverish Patient (hence the talking Microbe‘s comment that the “real” action is over), and the Patient repeatedly says that what is happening is a dream.

The play is an early example of the formal experimentation with allegory and the absurd that become a feature of Shaw’s later work, having much in common with the later play The Simpleton of the Unexpected Isles, which is also set in an obscure island at the edge of the British Empire. Its absurdist elements later lead to its being viewed as a precursor to the work of Samuel Beckett and Harold Pinter.

The idea that microbes, specifically bacteria, are somehow made sick by human illnesses is a belief that Shaw repeatedly promotes, claiming that disease produces mutations in bacteria, misleading doctors into the belief that “germs” cause disease. The play dramatises his theory that life-energy itself cures illness.

The play is first staged on Monday, February 29, 1932, at Boston‘s Colonial Theatre, by the Theatre Guild. After the April performance in New York it is followed in the same year by a production in Malvern, Worcestershire starring Beatrice Lillie, Claude Rains, and Leo G. Carroll.

The play receives a Broadway revival in 1963, directed by Albert Marre and starring Robert Preston, Lillian Gish, David Wayne, Cedric Hardwicke, Cyril Ritchard, Glynis Johns, and Eileen Heckart. This production features incidental music by Mitch Leigh, who later works with Marre on Man of La Mancha. It has also been presented at the Shaw Festival four times: in 1974, 1982, 1994, and 2006.


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Birth of Physicist Ernest Thomas Sinton Walton

ernest-waltonErnest Thomas Sinton Walton, Irish physicist, is born in Abbeyside, Dungarvan, County Waterford on October 6, 1903. He is the corecipient, with Sir John Douglas Cockcroft of England, of the 1951 Nobel Prize in Physics for the development of the first nuclear particle accelerator, known as the Cockcroft-Walton generator.

Walton is the son of a Methodist minister, Rev John Walton (1874–1936), and Anna Sinton (1874–1906). In those days a general clergyman’s family moves once every three years, and this practice carries him and his family, while he is a small child, to Rathkeale, County Limerick, where his mother dies, and to County Monaghan. He attends day schools in counties Down and Tyrone, and at Wesley College in Dublin before becoming a boarder at Methodist College Belfast in 1915, where he excels in science and mathematics. He obtains degrees in mathematics and experimental science from Trinity College Dublin in 1926.

Walton goes to Trinity College, Cambridge in 1927 where he works with Cockcroft in the Cavendish Laboratory under Ernest Rutherford until 1934. In 1928 he attempts two methods of high-energy particle acceleration. Both fail, mainly because the available power sources could not generate the necessary energies, but his methods are later developed and used in the betatron and the linear particle accelerator. In 1929 Cockcroft and Walton devise an accelerator that generates large numbers of particles at lower energies. With this device in 1932 they disintegrate lithium nuclei with protons, the first artificial nuclear reaction not utilizing radioactive substances and so becomes the first person in history to split the atom.

After gaining his Ph.D. at Cambridge, Walton returns to Trinity College, Dublin, in 1934, where he remains as a fellow for the next 40 years and a fellow emeritus thereafter. He is Erasmus Smith Professor of Natural and Experimental Philosophy from 1946 to 1974 and chairman of the School of Cosmic Physics at the Dublin Institute for Advanced Studies after 1952.

Although he retires from Trinity College Dublin in 1974, he retains his association with the Physics Department at Trinity up to his final illness. His is a familiar face in the tea-room. Shortly before his death he marks his lifelong devotion to Trinity by presenting his Nobel medal and citation to the college. Ernest Walton dies at the age of 91 in Belfast on June 25, 1995. He is buried in Deans Grange Cemetery in Dublin.

(Pictured: Ernest T.S. Walton, 1951, by Nobel foundation)


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Birth of Poet Thomas Kinsella

thomas-kinsellaThomas Kinsella, poet whose sensitive lyrics deal with primal aspects of the human experience, often in a specifically Irish context, is born in Inchicore, Dublin on May 4, 1928.

Kinsella spends most of his childhood in the Kilmainham/Inchicore area of Dublin. He is educated at the Model School, Inchicore, where classes are taught in Irish Gaelic, and at the O’Connell School in North Richmond Street, Dublin. He acquires a series of grants and scholarships that allow him to attend University College Dublin, where he studies physics and chemistry before receiving a degree in public administration.

Kinsella begins serving in the Irish civil service in 1946, and in the early 1950s he meets Liam Miller, the founder of Dolman Press, which publishes much of Kinsella’s poetry beginning in 1952. Among these publications are Poems (1956), his first volume of collected work, Another September (1958), which contains poems that explore the imposition of existential order through various forms, be they natural or products of the poet’s imagination and Downstream (1962), a collection focusing on war and political and social disruption in modern Ireland.

In 1965 Kinsella leaves the Irish civil service and takes a position as a writer in residence at Southern Illinois University in Carbondale (1965–70). During this time he publishes Nightwalker, and Other Poems (1967), a sombre collection ruminating on Ireland’s past and turbulent present. His translation of the ancient Gaelic saga The Cattle Raid of Cooley (Táin bó Cuailnge) is published in 1969, and the following year he begins teaching at Temple University in Philadelphia. New Poems 1956–73 (1973) and One, and Other Poems (1979) skillfully extend the themes of love, death, and rejuvenation.

Kinsella founds his own publishing company, the Peppercanister Press, in Dublin in 1972, which allows him to publish pamphlets and individual poems in limited editions without relying on submissions to journals or magazines. His first poem to be published through his press is Butcher’s Dozen (1972), about Bloody Sunday, in which 13 demonstrators are killed by British troops in Derry, Northern Ireland, and the ensuing tribunal. Blood & Family (1988) combines four short collections of prose and verse originally published individually through Peppercanister, and Godhead (1999) explores the Trinity in the light of contemporary society. Later works published through Peppercanister include Marginal Economy (2006), Man of War (2007), and Belief and Unbelief (2007). Numerous collections of his poems have been released, including Collected Poems, 1956–2001 (2001) and Selected Poems (2007).

In December 2018, Kinsella is awarded Doctor in Littoris, Honoris Causa, by Trinity College Dublin.


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Patrick Francis Healy Becomes President of Georgetown University

Patrick Francis Healy, Jesuit priest and educator, becomes the 29th President of Georgetown University on July 31, 1874. He is known for expanding the school following the American Civil War. Healy Hall is constructed during his tenure and is named after him. It is designated as a National Historic Landmark in the late 20th century.

Healy is born into slavery in 1834 in Macon, Georgia, the third son of Irish American plantation owner Michael Healy and his African American slave Mary Eliza, who is the multiracial daughter of a black slave and white slaveowner. The law establishes during colonial slavery in the United States that children are to take the legal status of the mother. By the principle of partus sequitur ventrum, Patrick and his siblings are legally considered slaves in Georgia, although their father is free and they are three-quarters or more European in ancestry.

Discriminatory laws in Georgia prohibit the education of slaves and require legislative approval for each act of manumission, making these essentially impossible to gain. Michael Healy arranges for all his children to leave Georgia and move to the North to obtain their educations and have opportunities in their lives. They are raised as Irish Catholics. Patrick’s brothers and sisters are nearly all educated in Catholic schools and colleges. Many achieve notable firsts for Americans of mixed-race ancestry during the second half of the 19th century, and the Healy family of Georgia is remarkably successful.

Healy sends his older sons first to a Quaker school in Flushing, New York. Despite the Quakers’ emphasis on equality, Patrick encounters some discrimination during his grade school years, chiefly because his father is a slaveholder, which by the late antebellum years the Quakers consider unforgivable. Patrick also meets resistance in the school as an Irish Catholic. When Michael Healy hears of a new Jesuit college, the College of the Holy Cross in Worcester, Massachusetts, he sends his four oldest sons, including Patrick, to study there in 1844. They are joined at Holy Cross by their younger brother Michael in 1849.

Following Patrick’s graduation in 1850, he enters the Jesuit order, the first African American to do so, and continues his studies. The order sends him to Europe to study in 1858. His mixed-race ancestry has become an issue in the United States, where tensions are rising over slavery. He attends the Catholic University of Leuven in Belgium, earning his doctorate, becoming the first American of openly acknowledged part-African descent to do so. During this period he is also ordained to the priesthood on September 3, 1864.

In 1866 Healy returns to the United States and teaches philosophy at Georgetown University in Washington, D.C. On July 31, 1874, he is selected as the school’s twenty-ninth president. He is the first college president in the United States of African-American ancestry. At the time, he identifies as Irish Catholic and is accepted as such.

Patrick Healy’s influence on Georgetown is so far-reaching that he is often referred to as the school’s “second founder,” following Archbishop John Carroll. Healy helps transform the small nineteenth-century college into a major university for the twentieth century, likely influenced by his European education.

He modernizes the curriculum by requiring courses in the sciences, particularly chemistry and physics. He expands and upgrades the schools of law and medicine. The most visible result of Healy’s presidency is the construction of the university’s flagship building designed by Paul J. Pelz, begun in 1877 and first used in 1881. The building is named in his honor as Healy Hall.

Healy leaves the College in 1882 and travels extensively through the United States and Europe, often in the company of his brother James, a bishop in Maine. In 1908 he returns to the campus infirmary, where he dies on January 10, 1910. He is buried on the grounds of the university in the Jesuit cemetery.


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Birth of Physicist & Engineer William Thomson

William Thomson, 1st Baron Kelvin, Scots-Irish mathematical physicist and engineer, is born in Belfast on June 26, 1824.

At the University of Glasgow he does important work in the mathematical analysis of electricity and formulation of the first and second laws of thermodynamics, and does much to unify the emerging discipline of physics in its modern form. He works closely with mathematics professor Hugh Blackburn in his work. He also has a career as an electrical telegraph engineer and inventor, which propels him into the public eye and ensures his wealth, fame and honour. For his work on the transatlantic telegraph project he is knighted in 1866 by Queen Victoria, becoming Sir William Thomson. He has extensive maritime interests and is most noted for his work on the mariner’s compass, which had previously been limited in reliability.

Absolute temperatures are stated in units of kelvin in his honour. While the existence of a lower limit to temperature (absolute zero) is known prior to his work, Thomson is widely known for determining its correct value as approximately −273.15 degree Celsius or −459.67 degree Fahrenheit.

Thomson is ennobled in 1892 in recognition of his achievements in thermodynamics, and of his opposition to Irish Home Rule, becoming Baron Kelvin, of Largs in the County of Ayr. He is the first British scientist to be elevated to the House of Lords. The title refers to the River Kelvin, which flows close by his laboratory at the University of Glasgow. His home is the imposing red sandstone mansion Netherhall, in Largs. Despite offers of elevated posts from several world-renowned universities, Thomson refuses to leave Glasgow, remaining Professor of Natural Philosophy for over 50 years, until his eventual retirement from that post. The Hunterian Museum at the University of Glasgow has a permanent exhibition on the work of Thomson including many of his original papers, instruments and other artifacts such as his smoking pipe.

Always active in industrial research and development, he is recruited around 1899 by George Eastman to serve as vice-chairman of the board of the British company Kodak Limited, affiliated with Eastman Kodak.

In November 1907 he catches a chill and his condition deteriorates until he dies at his Scottish residence, Netherhall, in Largs on December 17.

Lord Kelvin is an elder of St. Columba’s Parish Church (Church of Scotland) in Largs for many years. It is to that church that his remains are taken after his death. Following the funeral service, his body is taken to Bute Hall in his beloved University of Glasgow for a service of remembrance before being taken to London for interment at Westminster Abbey, near the final resting place of Sir Isaac Newton.


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Birth of Actor Liam Neeson

Actor Liam John Neeson is born on June 7, 1952 in Ballymena, County Antrim. Raised as a Roman Catholic, Neeson is named Liam after the local priest. He says growing up as a Catholic in a predominately Protestant town made him cautious. At age nine, he begins boxing lessons at the All Saints Youth Club and later becomes Ulster’s amateur senior boxing champion.

Neeson first steps on stage at age eleven after his English teacher offers him the lead role in a school play, which he accepts because the girl he is attracted to is starring in it. He continues to act in school productions over the following years.

Neeson’s interest in acting and decision to become an actor is also influenced by minister Ian Paisley, into whose Free Presbyterian church Neeson would sneak. Neeson says of Paisley, “He had a magnificent presence and it was incredible to watch him just Bible-thumping away… it was acting, but it was also great acting and stirring too.”

In 1971, Neeson is enrolled as a physics and computer science student at Queen’s University Belfast, Northern Ireland, before leaving to work for the Guinness Brewery. At Queen’s, he discovers a talent for football and is spotted by Seán Thomas at Bohemian F.C. There is a club trial in Dublin and Neeson plays one game as a substitute against Shamrock Rovers F.C., but is not offered a contract.

In 1976, Neeson joins the Lyric Players’ Theatre in Belfast for two years. He then acts in the Arthurian film, Excalibur (1981), alongside Helen Mirren. Between 1982 and 1987, he stars in five films, most notably alongside Mel Gibson and Anthony Hopkins in The Bounty (1984) and Robert De Niro and Jeremy Irons in The Mission (1986). He lands a leading role alongside Patrick Swayze in Next of Kin (1989).

Neeson rises to prominence when he stars in the title role in Steven Spielberg‘s 1993 Oscar winner Schindler’s List. He has since starred in other successful films, including the title role in the historical biopic Michael Collins (1996), the film adaptation of Victor Hugo‘s 1862 novel Les Misérables (1998), Star Wars: Episode I – The Phantom Menace as Qui-Gon Jinn (1999), the biographical drama Kinsey (2004), the superhero film Batman Begins as Ra’s al Ghul (2005), the action thriller series Taken (2008–2014), the fantasy adventure film Clash of the Titans (2010) as Zeus, the fantasy films in The Chronicles of Narnia series (2005–2010) as Aslan, and the thriller-survival film The Grey (2011). In 2016 he narrates the RTÉ One three-part documentary on the Easter Rising, 1916.

Neeson has been nominated for a number of awards, including an Academy Award for Best Actor, a BAFTA Award for Best Actor in a Leading Role and three Golden Globe Awards for Best Actor in a Motion Picture Drama. Empire magazine ranks Neeson among both the “100 Sexiest Stars in Film History” and “The Top 100 Movie Stars of All Time.”