{"id":1440,"date":"2026-06-08T10:04:13","date_gmt":"2026-06-08T09:04:13","guid":{"rendered":"http:\/\/news.preems.com\/?p=1440"},"modified":"2026-06-08T14:46:24","modified_gmt":"2026-06-08T13:46:24","slug":"irelands-power-of-ideas-inventions-innovations-and-ideas-that-changed-civilization","status":"publish","type":"post","link":"http:\/\/news.preems.com\/?p=1440","title":{"rendered":"Ireland\u2019s power of ideas. Inventions, innovations and ideas that changed civilization"},"content":{"rendered":"\n

Ireland is a small island nation on the western fringe of Europe, with a population that has never exceeded eight million people. Yet for a country of such modest size, its contribution to world civilisation – in literature, science, medicine, engineering and technology – is strikingly disproportionate. The Irish have long punched above their weight. From the sub-atomic particles that define matter, to the guided torpedoes that changed naval warfare, to the pioneering techniques that gave us hydrodynamics and modern chemistry, the island of saints and scholars has also been an island of inventors.<\/strong><\/p>\n\n\n\n

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The submarine – John Philip Holland (1840-1914)<\/strong><\/p>\n\n\n\n

Long before nuclear submarines prowled the oceans, before Hollywood thriller plots were set beneath the waves, before any navy possessed a credible underwater weapon, a quiet schoolteacher from County Clare named John Philip Holland sat in a New Jersey workshop and designed the vessel that would define undersea warfare for the next 150 years.<\/p>\n\n\n\n

Holland was born in Liscannor, a small village on the Atlantic coast of Clare, in 1840. He was educated by the Christian Brothers and eventually became a teacher himself in Limerick. His obsession with underwater navigation began in Ireland, where he sketched early designs in his notebooks. In 1873, motivated partly by a desire to help the Fenian Brotherhood strike at the British Royal Navy, he emigrated to the United States, settling in Boston.<\/p>\n\n\n\n

Holland submitted his first submarine design to the U.S. Navy in 1875, but it was rejected. Undeterred, Holland continued building experimental craft. His fourth vessel, the Fenian Ram (1881), was a 19-foot iron submarine powered by a two-cylinder petroleum engine – an astonishing piece of engineering for its era. It could dive, travel, and surface repeatedly. The Fenian Brotherhood, which had partly funded it, eventually stole it from Holland during a financial dispute, a betrayal that embittered him for years.<\/p>\n\n\n\n

Holland\u2019s masterpiece arrived in 1897: \u201cHolland VI\u201d. Measuring 53 feet in length, it used a gasoline engine on the surface and an electric motor when submerged – the dual-propulsion system that would become standard in submarines for the next fifty years. It could carry torpedoes and fire them accurately. It could dive to thirty feet and cruise at six knots underwater. It was, by every measure, the first truly practical combat submarine.<\/p>\n\n\n\n

The U.S. Navy purchased it in 1900 and named it \u201cUSS Holland (SS-1)\u201d, commissioning it as the first submarine in the American naval fleet. Within three years, Britain, Japan and the Netherlands had all purchased Holland designs. The submarine age had begun, launched by a modest Irish schoolteacher who never became rich and died in relative obscurity in 1914.<\/p>\n\n\n\n

\u201cUSS Holland (SS-1)\u201d is still considered the prototype for every diesel-electric submarine ever built. Holland received just $170,000 for his life\u2019s work – his company, Electric Boat, would go on to become General Dynamics, worth billions today.<\/p>\n\n\n\n

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The hypodermic syringe – Francis Rynd (1801-1861)<\/strong><\/p>\n\n\n\n

Today the hypodermic syringe is so ubiquitous – in hospitals, clinics, vaccination campaigns and insulin management – that it is nearly impossible to imagine medicine without it. Yet before 1844, there was no reliable means of injecting a substance directly beneath the skin. That changed because of a Dublin physician named Francis Rynd.<\/p>\n\n\n\n

Rynd worked at the Meath Hospital in Dublin in the 1840s, during a period of intense medical experimentation. His specific challenge was a patient suffering from neuralgia – excruciating facial pain along the trigeminal nerve, then called tic douloureux. Oral medications were having no effect. Rynd reasoned that if he could deliver a morphine solution directly to the nerve, relief might follow.<\/p>\n\n\n\n

In 1844, Rynd designed a hollow needle – a trocar – capable of penetrating the skin and depositing fluid beneath it. He used a cannula (a thin tube) fitted through the needle to allow the morphine to flow down into the tissue. The procedure, performed on his patient at Meath Hospital on 3 June 1844, was the first subcutaneous injection in recorded medical history. The patient, who had been suffering for years, experienced immediate and lasting relief.<\/p>\n\n\n\n

Rynd\u2019s invention bypassed the digestive system entirely, allowing drugs to act far more rapidly and predictably. This was transformative not only for pain management but for anaesthesia, vaccination and the treatment of conditions where oral administration was inadequate or impossible. The modern hypodermic syringe as we know it – with a plunger-driven barrel – was developed by Charles Pravaz and Alexander Wood in 1853, but Rynd\u2019s hollow needle was the conceptual and practical foundation on which they built.<\/p>\n\n\n\n

Rynd\u2019s original paper describing his procedure was published in the Dublin Medical Press in 1845. He never patented his invention, never sought commercial advantage, and died in relative poverty in 1861.<\/p>\n\n\n\n

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The guided torpedo – Louis Brennan (1852-1932)<\/strong><\/p>\n\n\n\n

The torpedo is one of the most feared weapons in naval history, but for decades after its invention, it was essentially a glorified shell: fired, it flew straight – or in whatever direction the ocean currents pushed it. Louis Brennan, an engineer from Castlebar, County Mayo, changed that fundamentally. He invented the guided torpedo – the ancestor of every precision-guided weapon that exists today.<\/p>\n\n\n\n

Brennan emigrated to Melbourne, Australia, as a teenager and trained as a watchmaker, which gave him extraordinary precision in mechanical design. In his twenties, back in Ireland and then Britain, he conceived a radical idea: a torpedo propelled and steered by two wires, wound on drums inside the weapon itself. By varying the speed at which each wire was paid out from a shore station, an operator could make the torpedo turn left or right – providing, for the first time in history, guided control of a weapon in flight.<\/p>\n\n\n\n

He patented the design in 1877 and demonstrated a working model on the Medway in 1880 (\u201cHMS Medway,\u201d a Royal Navy patrol vessel, or the \u201cPS Medway Queen,\u201d a historic paddle steamer). The performance was extraordinary: the torpedo reached speeds of 18 knots, could be guided accurately up to a mile, and could carry a warhead capable of sinking any vessel afloat. The British War Office, witnessing the demonstration, immediately grasped its significance.<\/p>\n\n\n\n

The British government purchased Brennan\u2019s patent in 1881 for the then-enormous sum of \u00a3110,000 – equivalent to roughly \u00a315 million today. The Brennan torpedo was deployed in coastal defence installations around the British Empire for decades. It was stationed at Garrison Point Fort in Sheerness, at Fort Totten in New York, and at numerous other key strategic points.<\/p>\n\n\n\n

Beyond its direct military use, Brennan\u2019s guided torpedo established the fundamental principle of remote-guided weaponry that would define twentieth-century warfare. He went on to invent a gyroscopic monorail – a self-balancing train that could run on a single rail – which astonished audiences at the 1907 Olympia Exhibition in London. His later work on helicopters, from 1919 onward, produced flying prototypes decades before the concept became practical.<\/p>\n\n\n\n

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The induction coil – Nicholas Callan (1799-1864)<\/strong><\/p>\n\n\n\n

The induction coil is the device that makes transformers possible, that gave Marconi his radio transmitter, that powered the early telegraph, that forms the basis of the spark plug in every combustion engine, and that lies at the heart of modern electrical infrastructure. It was invented by a priest in County Louth who described himself simply as a teacher of natural philosophy.<\/p>\n\n\n\n

Nicholas Callan was born near Dundalk and educated at Maynooth College, where he was ordained a priest and eventually became Professor of Natural Philosophy. In a small laboratory on the Maynooth campus, from the late 1820s onward, he pursued electromagnetic research with remarkable intensity, conducting over 3,000 experiments during his career.<\/p>\n\n\n\n

In 1836, he invented the induction coil. His device consisted of two coils of wire – a primary coil connected to a battery, and a secondary coil wound concentrically around the first. When current in the primary was interrupted, the magnetic field collapsed, inducing a much higher voltage in the secondary. Callan\u2019s first coil could produce sparks. His later coils – some with miles of fine wire – could produce shocks powerful enough to knock a horse to its knees.<\/p>\n\n\n\n

Callan also built the world\u2019s largest battery at that time – the \u201cMaynooth Battery\u201d of 1836 – using 577 pairs of cells, producing voltages powerful enough for dramatic demonstration. He developed an early form of electroplating, observed principles of electrical resonance decades before they were formally described, and produced the first documented high-voltage induction sparks.<\/p>\n\n\n\n

His induction coil was the direct precursor of the Ruhmkorff coil, which powered X-ray tubes, and the ignition coil, which fires the spark plugs in petrol engines to this day. Marconi used a Ruhmkorff-type coil derived directly from Callan\u2019s principle to transmit his famous transatlantic wireless signal in 1901.<\/p>\n\n\n\n

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The unsinkable lifeboat<\/strong><\/p>\n\n\n\n

The story of the modern self-righting, unsinkable lifeboat is complex and contested, but one critical Irish figure stands at its centre: William Hillary, who founded the Royal National Institution for the Preservation of Life from Shipwreck in 1824 – the body that became the RNLI (Royal National Lifeboat Institution). The RNLI, which operates over 400 lifeboat stations across the UK and Ireland and has saved more than 140,000 lives since 1824, was co-founded on the instigation and enthusiasm of Irish sea-rescue advocates who had witnessed the devastation wrought by Atlantic storms on Irish coastal communities.<\/p>\n\n\n\n

However, an earlier and less contested Irish contribution comes from Richard Lewis and the development of shore-based rescue infrastructure, as well as Henry Greathead, whose design was championed and partly developed in response to the wreck of the Adventure at the mouth of the Tyne – an event that inspired an Irishman to take the cause to Parliament.<\/p>\n\n\n\n

More directly: the tubular steel lifebuoy – a ring of buoyancy that floats indefinitely – was developed from concepts first articulated by Irish coastguard engineers in the 1840s, and the first purpose-built lifeboat station on the Irish coast opened at Arklow, County Wicklow, in 1826, predating most European equivalents.<\/p>\n\n\n\n

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Colour photography – John Joly (1857-1933)<\/strong><\/p>\n\n\n\n

When you look at a colour photograph, you are looking at the legacy of a system invented by a Dublin physicist who also pioneered radiocarbon geochronology, invented a method for delivering radiation therapy to cancer patients and calculated the age of the Earth\u2019s oceans. John Joly was, quite simply, one of the most fertile scientific minds the island of Ireland has ever produced.<\/p>\n\n\n\n

Photography had existed for half a century, but it could only produce monochrome images. Colour photography required a way to capture the three primary components of light – red, green and blue – simultaneously on a single plate. In 1894, Joly patented an ingenious solution: a screen of extremely fine parallel lines, alternately coloured red, green and blue, placed in front of a panchromatic photographic plate. When the photograph was taken, each area of the plate received light filtered through one colour of the screen. When the developed image was viewed through an identical screen, the separate colour records merged into a convincing full-colour image.<\/p>\n\n\n\n

This additive colour process was demonstrated publicly in 1895 and represented the world\u2019s first successful one-shot colour photography system. The Joly colour process was commercially available by 1896 – years before Autochrome, the process commonly (and somewhat erroneously) celebrated as the first practical colour photography.<\/p>\n\n\n\n

Joly did not stop at colour photography. In 1914, he invented a method of using radium tubes inserted directly into cancer tumours – a pioneering form of brachytherapy that informed modern cancer treatment. He also, using measurements of ocean salinity and the rate at which rivers deposit salt into the sea, calculated that the Earth\u2019s oceans were approximately 80-90 million years old – an estimate later refined but methodologically sound.<\/p>\n\n\n\n

Joly held the Chair of Geology and Mineralogy at Trinity College Dublin for many years, where he mentored a generation of Irish scientists. A crater on the Moon is named in his honour.<\/p>\n\n\n\n

Joly\u2019s Colour Screen process predated the Lumiere brothers\u2019 famous Autochrome process by more than a decade. He holds a unique distinction: he made fundamental contributions to photography, oncology and geochronology within a single lifetime.<\/p>\n\n\n\n

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The binaural stethoscope – Arthur Leared (1822-1879)<\/strong><\/p>\n\n\n\n

Rene Laennec invented the monaural stethoscope in 1816 – a simple wooden tube pressed to the chest. But for decades, this device had a limitation: it used only one ear. Diagnosis was imprecise, acoustic detail was lost, and the act of pressing a tube directly to the patient\u2019s body was both awkward and sometimes impractical.<\/p>\n\n\n\n

Arthur Leared, a physician from the town of Wexford, County Wexford, solved this problem in 1851. He demonstrated at the Great Exhibition in London the first binaural stethoscope – a device using two earpieces connected by tubing to a single chest piece – the design that every doctor in the world uses today. George Cammann independently developed a similar instrument and published his design in 1852, and it is Cammann\u2019s refined version that entered commercial production. But Leared\u2019s demonstration at the Exhibition preceded Cammann\u2019s publication, and his claim to the original invention is well documented.<\/p>\n\n\n\n

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The Beaufort Wind Scale – Francis Beaufort (1774-1857)<\/strong><\/p>\n\n\n\n

Before Francis Beaufort, weather at sea was described in language so vague as to be nearly useless: \u2018a stiff breeze,\u2019 \u2018a moderate gale,\u2019 \u2018a fresh wind.\u2019 Every captain meant something different. Comparison of meteorological observations between ships was effectively impossible. Beaufort, born in Navan, County Meath, created a system that gave the world a universal vocabulary for wind strength.<\/p>\n\n\n\n

Beaufort joined the Royal Navy at thirteen and had an extraordinary career, including serving in the Napoleonic Wars and commanding a vessel during a survey of the Mediterranean. In 1805, he recorded in his logbook a wind scale he had devised – thirteen points from calm to hurricane – based not on wind speed (which could not then be measured at sea) but on the effect of wind on a well-rigged man-of-war\u2019s sails.<\/p>\n\n\n\n

He refined the scale over subsequent years and shared it with Robert FitzRoy, captain of the Beagle – the ship that would carry Charles Darwin on his epoch-making voyage. FitzRoy adopted it enthusiastically, and it spread through the Royal Navy. In 1838, the Admiralty adopted the Beaufort Scale as the official method of wind classification for all naval logs.<\/p>\n\n\n\n

The Beaufort Scale was adopted by the International Meteorological Committee in 1874 and remains in use worldwide. Beaufort also served as Hydrographer of the Navy for 25 years, overseeing the charting of over a million miles of coastline.<\/p>\n\n\n\n

The Beaufort Scale was subsequently adopted internationally. Its twelve points (later extended to a Force 12-plus for hurricanes) became the global standard for meteorological reporting. It enabled the first meaningful international comparison of weather data. It underpins the World Meteorological Organization\u2019s reporting to this day. Every weather forecast that references \u2018gale force winds\u2019 or \u2018Force 10\u2019 speaks in the language of a County Meath man who simply wanted shipmasters to describe what they saw in consistent terms.<\/p>\n\n\n\n

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Boolean Algebra – George Boole (1815-1864)<\/strong><\/p>\n\n\n\n

George Boole was English by birth – born in Lincoln – but he lived, worked and died in Cork, where he held the first Chair of Mathematics at University College Cork (then Queen\u2019s College). His intellectual life was largely Irish, his students were Irish and his great work was written in Cork. For these reasons, and because Ireland so firmly claims him, he belongs in this account.<\/p>\n\n\n\n

In 1854, Boole published \u201cAn Investigation of the Laws of Thought,\u201d in which he reduced all of logic to a binary algebra using only two values – 0 and 1, true and false, yes and no – and three fundamental operations: AND, OR and NOT. He showed that all of classical logic could be expressed in this algebraic form, and that logical deductions could be computed mechanically.<\/p>\n\n\n\n

The world did not immediately grasp the implications. Boole himself saw it primarily as a contribution to philosophy and mathematics. It was nearly a century later, in 1937, that a young Claude Shannon at Massachusetts Institute of Technology wrote a master\u2019s thesis showing that Boolean algebra could be used to design electronic circuits. Every switch, every logic gate, every transistor decision in every computer, phone, server and digital device in the world operates on Boolean principles.<\/p>\n\n\n\n

Without Boolean algebra, the stored-program computer is impossible. Without it, database queries, internet routing, artificial intelligence, encryption and every form of software logic dissolve into incoherence. Boole died of pneumonia in 1864 at the age of 49, possibly because his wife, believing fresh air was curative, insisted on walking him to his lectures in heavy rain and then put him to bed in wet clothes. He never knew what he had created. University College Cork\u2019s main library is named the Boole Library. When Apple, Google, Microsoft and every other technology company in the world process a logical operation, they are, in the most literal sense, doing what George Boole described in Cork in 1854. The entire digital age is, in a deep sense, his monument.<\/p>\n\n\n\n

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The ejector seat – Sir James Martin (1893-1981)<\/strong><\/p>\n\n\n\n

In the late 1940s, as jet aircraft began flying faster than propeller planes had ever flown, a new and terrible problem emerged: at 500 miles per hour, a pilot could not manually bail out of a stricken aircraft. The wind blast alone was lethal. The solution – the explosive ejector seat – was developed by an engineer from Crossgar, County Down, named James Martin.<\/p>\n\n\n\n

Martin had co-founded the Martin-Baker Aircraft Company in the 1930s. In 1942, his co-founder and closest friend, Valentine Baker, was killed when an experimental aircraft crashed. Martin channelled his grief into an obsessive determination to ensure that no pilot need ever die in a preventable accident. He turned his company\u2019s entire focus toward pilot escape systems.<\/p>\n\n\n\n

The Martin-Baker ejector seat was first successfully tested with a live human pilot – a volunteer named Bernard Lynch – on 24 July 1946 at Chalgrove Aerodrome in Oxfordshire. Lynch was catapulted clear of a Gloster Meteor jet aircraft at 320 miles per hour using an explosive cartridge powerful enough to hurl him upward in approximately 0.1 seconds.<\/p>\n\n\n\n

Martin-Baker seats have since been fitted to over 93 different types of military aircraft in 93 countries. By 2023, the company had recorded over 7,670 lives saved by ejections from Martin-Baker seats – a remarkable and precisely documented toll of survival. The company, still family-owned and operated from Denham in Buckinghamshire, remains the world\u2019s dominant manufacturer of ejector seats, holding approximately 70% of the global market.<\/p>\n\n\n\n

James Martin himself was a demanding, obsessive genius who reportedly tested early seat components personally despite being in his fifties. He was knighted in 1965. His company\u2019s Ejection Tie Club – given to every pilot who has ejected from a Martin-Baker seat – has become one of aviation\u2019s most exclusive fraternities.<\/p>\n\n\n\n

Martin-Baker seats are fitted to the aircraft of the U.S. Navy, the Royal Air Force, the French Air Force and dozens of other air arms. The company has saved over 7,670 lives. Every one is documented, and survivors receive a personal communication from the company.<\/p>\n\n\n\n

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Shorthand – John Robert Gregg (1867-1948)<\/strong><\/p>\n\n\n\n

For most of the twentieth century, the professional world ran, in large part, on shorthand. Secretaries, journalists, court reporters and parliamentary recorders used it as their primary tool. The dominant system – used in nearly every English-speaking country – was Gregg Shorthand, invented by a man from Rockcorry, County Monaghan, who was partially deaf and had been told he had no aptitude for language.<\/p>\n\n\n\n

Previous shorthand systems, notably Pitman\u2019s, were based on representing sounds using heavy and light strokes – a system that required shaded lines and was extremely difficult to learn. Gregg designed an alternative based on the natural elliptical motions of cursive handwriting. His system used joined curves and lines of uniform thickness, flowing naturally from the pen, that could be written at extraordinary speed.<\/p>\n\n\n\n

He published Light-Line Phonography – later renamed Gregg Shorthand – in Liverpool in 1888. Emigrating to the United States in 1893, he promoted his system with evangelical zeal, and it spread through business schools, typing colleges and secretarial training programmes across North America. By the mid-twentieth century, tens of millions of students had learned Gregg Shorthand.<\/p>\n\n\n\n

Gregg Shorthand made it possible to take dictation at spoken speed – effectively allowing a single person to capture verbatim records of meetings, legal proceedings and business correspondence that would otherwise require a team of scribes. It enabled the efficient, single-secretary office model that dominated business for most of the twentieth century. It remained the dominant shorthand system in North America until the widespread adoption of audio recording equipment and word processing software.<\/p>\n\n\n\n

Gregg Shorthand has been learned by an estimated 40 million students worldwide. The system was used by court reporters across the United States, Canada and Australia for most of the twentieth century.<\/p>\n\n\n\n

The nephrometer \/ turbidimeter – Richard Sherwood Morris<\/strong><\/p>\n\n\n\n

While less famous than some inventions on this list, the turbidimeter – an instrument for measuring the clarity of liquids by assessing how much light they scatter – was developed in its modern laboratory-standard form with substantial contributions from Irish chemists working in the mid-twentieth century. The instrument is now essential in water treatment plants worldwide, used to measure the purity of drinking water against WHO standards. Without reliable turbidity measurement, the safe management of municipal water supplies for billions of people would be substantially more difficult.<\/p>\n\n\n\n

The sceptical chymist – Robert Boyle<\/strong><\/p>\n\n\n\n

Robert Boyle was the fourteenth child of the 1st Earl of Cork. The molecular biology company Boyle\u2019s Law takes its name from him; the principle itself appears in every secondary school chemistry curriculum on Earth.<\/p>\n\n\n\n

Ireland produced a remarkable cluster of analytical chemists in the nineteenth and early twentieth centuries, several of whom made fundamental contributions to chemical analysis. Chief among these is the contribution of Robert Boyle – who, although born in Lismore Castle, County Waterford, in 1627, is sometimes claimed primarily by England because of his long career there. Boyle\u2019s Law (relating the pressure and volume of gases) and his definition of a chemical element as a substance that cannot be broken down into simpler substances by chemical means are among the foundations of modern chemistry.<\/p>\n\n\n\n

Boyle\u2019s 1661 work \u201cThe Sceptical Chymist\u201d dismantled the ancient four-element theory (earth, water, fire, air) and replaced it with the empirical, experimental framework that defines chemistry to this day. He insisted that chemistry must be founded on experiment and measurement rather than philosophical tradition. He invented the vacuum pump (jointly with Robert Hooke), performed the first controlled experiments on combustion, and described what we now call Boyle\u2019s Law.<\/p>\n\n\n\n

His influence on science is hard to overstate: every chemical laboratory in the world operates according to methodological principles he helped establish. The Royal Society, of which he was a founding fellow, carries forward his insistence on empirical verification as the basis of knowledge.<\/p>\n\n\n\n

The tank – Ernest Swinton<\/strong><\/p>\n\n\n\n

The tank – armoured, tracked, gun-bearing – changed land warfare permanently from its first appearance at the Battle of the Somme in 1916. While credit for the tank is contested (it was a genuinely collaborative British military-industrial project), the officer most directly responsible for its conception and advocacy was Lieutenant Colonel Ernest Swinton, born in Bangalore to Anglo-Irish parents with roots in County Cork.<\/p>\n\n\n\n

Swinton, serving as an official war correspondent in France in 1914, was the first to formally propose to the War Office the idea of a tracked, armoured machine that could cross trenches and barbed wire under fire. His 1914 memorandum is the document from which the tank programme grew. He championed the project against persistent scepticism, helped draft tactical doctrine for its use, and was present at its first deployment. He later became the first Chichele Professor of Military History at Oxford.<\/p>\n\n\n\n

The word \u2018tank\u2019 was invented as a security cover name to disguise what the new vehicles actually were during their manufacture and transport to France. The name was suggested by Swinton himself, who wanted a word that suggested the vehicles were water containers being shipped to the Middle East.<\/p>\n\n\n\n

The thread running through all these stories is not privilege or resource – Ireland in the nineteenth century was, for much of its population, a place of devastating poverty, famine and emigration. The thread is something harder to quantify: an intellectual restlessness, a willingness to question received wisdom, and a particular relationship with practical problem-solving that has characterised Irish contributions to world knowledge across four centuries.<\/p>\n\n\n\n

From the priest in Maynooth whose electrical experiments powered the first radios, to the Clare schoolteacher whose submarine design still informs every vessel that sails beneath the waves, to the Monaghan man whose shorthand system captured the spoken words of governments and courts across the English-speaking world – Irish inventors worked at the intersection of theory and practice, of curiosity and utility.<\/p>\n\n\n\n

Several of them died poor. Several were not adequately credited in their own lifetimes. Some – like John Philip Holland – watched others grow wealthy from their ideas while they themselves received little. But the ideas endured. They endured because they were good – rigorously conceived, practically sound, genuinely needed.<\/p>\n\n\n\n

Ireland is a country that has given the world its writers, its music and its hospitality. It has also given the world the submarine, the ejector seat, colour photography, the induction coil, Boolean logic and the guided weapon. It is time that story was told as boldly as any other.<\/p>\n\n\n\n

By Glen Connor<\/strong><\/p>\n\n\n\n

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