James Watt - Revision history

Pankratz at 18:23, 8 January 2024

2024-01-08T18:23:47Z

← Older revision		Revision as of 18:23, 8 January 2024
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	<b>Sources</b>		<b>Sources</b>

	*Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.		Kingsford, Peter W.. "James Watt". ''Encyclopedia Britannica'', 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.

	*Dickinson HW. Life in ~~retirement~~, 1800–1819. In: James Watt: Craftsman and Engineer. Cambridge Library Collection - Technology. Cambridge University Press; 2010:182-200.		Dickinson HW. "Life in Retirement, 1800–1819". In: ''James Watt: Craftsman and Engineer''. Cambridge Library Collection - Technology. Cambridge University Press; 2010. 182-200.

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Didinious at 17:00, 7 January 2024

2024-01-07T17:00:19Z

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	<b>The Watt engine</b>		<b>The Watt engine</b>
	[[File:Watt.jpg\|200px\|thumb]]		[[File:Watt.jpg\|200px\|thumb\|left\|The Steam Engine]]

	While fixing a prototype Newcomen steam engine in 1764, Watt was struck by its inefficient use of steam. In May 1765, following efforts to tackle its improvement, he discovered a solution—the separate condenser, his first and most noteworthy invention. Watt recognized that the Newcomen engine's major flaw was the loss of latent heat (heat involved in changing a substance's state, such as from solid to liquid). Thus, he concluded that condensation needed to occur in a separate chamber connected to, but distinct from, the cylinder.		While fixing a prototype Newcomen steam engine in 1764, Watt was struck by its inefficient use of steam. In May 1765, following efforts to tackle its improvement, he discovered a solution—the separate condenser, his first and most noteworthy invention. Watt recognized that the Newcomen engine's major flaw was the loss of latent heat (heat involved in changing a substance's state, such as from solid to liquid). Thus, he concluded that condensation needed to occur in a separate chamber connected to, but distinct from, the cylinder.
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	<b>Legacy</b>		<b>Legacy</b>

	[[File:James-watt2 statue.jpg\|200px\|thumb\|right\|The Statue of James Watt Glasgow, Scotland.]]		[[File:James-watt2 statue.jpg\|200px\|thumb\|right\|The Statue of James Watt in Glasgow, Scotland.]]

	The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.		The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.

Didinious at 16:58, 7 January 2024

2024-01-07T16:58:54Z

← Older revision		Revision as of 16:58, 7 January 2024
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	<b>Legacy</b>		<b>Legacy</b>

	[[File:James-watt2 statue.jpg\|200px\|thumb\|~~left~~\|The Statue of James Watt Glasgow, Scotland.]]		[[File:James-watt2 statue.jpg\|200px\|thumb\|right\|The Statue of James Watt Glasgow, Scotland.]]

	The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.		The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.

Didinious at 16:57, 7 January 2024

2024-01-07T16:57:55Z

← Older revision		Revision as of 16:57, 7 January 2024
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	<b>Legacy</b>		<b>Legacy</b>

			[[File:James-watt2 statue.jpg\|200px\|thumb\|left\|The Statue of James Watt Glasgow, Scotland.]]

	The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.		The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.

Didinious at 16:46, 7 January 2024

2024-01-07T16:46:04Z

← Older revision		Revision as of 16:46, 7 January 2024
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	<b>Sources</b>		<b>Sources</b>

	*1. Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.		*Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.

	*2. Dickinson HW. Life in retirement, 1800–1819. In: James Watt: Craftsman and Engineer. Cambridge Library Collection - Technology. Cambridge University Press; 2010:182-200.		*Dickinson HW. Life in retirement, 1800–1819. In: James Watt: Craftsman and Engineer. Cambridge Library Collection - Technology. Cambridge University Press; 2010:182-200.

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Didinious at 16:45, 7 January 2024

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← Older revision		Revision as of 16:45, 7 January 2024
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	Demand for Watt's steam engine across various industries led to considerable wealth by 1790. In addition to his business success, Watt engaged in scientific pursuits, joining the Lunar Society and conducting experiments. Elected a fellow of the Royal Society of London in 1785, he eventually took holidays, acquired an estate, and gradually withdrew from business after 1795.		Demand for Watt's steam engine across various industries led to considerable wealth by 1790. In addition to his business success, Watt engaged in scientific pursuits, joining the Lunar Society and conducting experiments. Elected a fellow of the Royal Society of London in 1785, he eventually took holidays, acquired an estate, and gradually withdrew from business after 1795.

	During his extended retirement, marked by the loss of his son Gregory and ~~several close~~ friends, Watt and his wife traveled to Scotland, France, and Germany after the Peace of Amiens in 1802~~. Despite personal sorrows, he continued working in his equipped workshop, inventing a sculpturing machine to reproduce busts and figures for friends~~.		During his extended retirement, marked by the loss of his son Gregory, his sister Margaret, and his daughter Jessy. Watt also mourned the loss of old friends, including Wedgwood in 1795, Black in 1799, Darwin in 1802, Priestley in 1803, and Robison in 1805. However, he was to experience an even more significant loss with the passing of his partner, Boulton. Nevertheless, Watt and his wife traveled to Scotland, France, and Germany after the Peace of Amiens in 1802.

	Watt also served as a consultant to the Glasgow Water Company. His accomplishments were duly recognized, with honors including a doctorate of laws from the University of Glasgow in 1806 and a foreign associate position in the French Academy of Sciences in 1814 and a baronetcy, which he ~~declined~~.		In his old age, Watt feared his mental faculties might decline, so he resumed studying German and quickly regained proficiency. Watt maintained both his mental faculties and inventive powers until the end, demonstrated by his successful resolution of a problem posed by the Directors of the Glasgow Water Works in 1810. Watt's impressive inventive skills in his later years are also highlighted by his work on the sculpturing machine which he had set up in the attic of his house. In his workshop, he used the sculpturing machine to replicate original busts and figures for his friends.

			Watt also served as a consultant to the Glasgow Water Company. His accomplishments were duly recognized, with honors including a doctorate of laws from the University of Glasgow in 1806 and a foreign associate position in the French Academy of Sciences in 1814 and a baronetcy, which he turned down.


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	<b>Sources</b>		<b>Sources</b>

	* Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.		*1. Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.

			*2. Dickinson HW. Life in retirement, 1800–1819. In: James Watt: Craftsman and Engineer. Cambridge Library Collection - Technology. Cambridge University Press; 2010:182-200.

	[[Category:Expansion]]		[[Category:Expansion]]

Didinious at 16:18, 7 January 2024

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← Older revision		Revision as of 16:18, 7 January 2024
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	James Watt (born January 19, 1736, Greenock, Renfrewshire, Scotland—died August 25, 1819, Heathfield Hall, near Birmingham, Warwick, England) was a Scottish instrument maker and inventor whose steam engine played a significant role in shaping the Industrial Revolution. Watt gained recognition for patenting both the double-acting engine and an early steam locomotive. In 1785, he achieved the honor of being elected as a fellow of the Royal Society of London.		James Watt (born January 19, 1736, Greenock, Renfrewshire, Scotland—died August 25, 1819, Heathfield Hall, near Birmingham, Warwick, England) was a Scottish instrument maker and inventor whose steam engine played a significant role in shaping the Industrial Revolution. Watt gained recognition for patenting both the double-acting engine and an early steam locomotive. In 1785, he achieved the honor of being elected as a fellow of the Royal Society of London.


	<b>Education and training</b>		<b>Education and training</b>
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	[[File:Watt.jpg\|200px\|thumb]]		[[File:Watt.jpg\|200px\|thumb]]

	While fixing a prototype Newcomen steam engine in 1764, Watt was struck by its inefficient use of steam. In May 1765, following efforts to tackle its improvement, he discovered a solution—the separate condenser, his first and most noteworthy invention. Watt recognized that the Newcomen engine's major flaw was the loss of latent heat (heat involved in changing a substance's state, such as from solid to liquid). Thus, he concluded that condensation needed to occur in a separate chamber connected to, but distinct from, the cylinder. Soon after, he met John Roebuck, a British physician, chemist, and inventor, known for founding the Carron Works. Roebuck encouraged him to develop an engine. In 1768, they formed a partnership after Watt created a small test engine with financial support from Joseph Black. The next year, Watt secured the renowned patent for "A New Invented Method of Lessening the Consumption of Steam and Fuel in Fire Engines."		While fixing a prototype Newcomen steam engine in 1764, Watt was struck by its inefficient use of steam. In May 1765, following efforts to tackle its improvement, he discovered a solution—the separate condenser, his first and most noteworthy invention. Watt recognized that the Newcomen engine's major flaw was the loss of latent heat (heat involved in changing a substance's state, such as from solid to liquid). Thus, he concluded that condensation needed to occur in a separate chamber connected to, but distinct from, the cylinder.

			Soon after, he met John Roebuck, a British physician, chemist, and inventor, known for founding the Carron Works. Roebuck encouraged him to develop an engine. In 1768, they formed a partnership after Watt created a small test engine with financial support from Joseph Black. The next year, Watt secured the renowned patent for "A New Invented Method of Lessening the Consumption of Steam and Fuel in Fire Engines."

	While working as a land surveyor in 1766, Watt remained consistently occupied for the next eight years, marking out canal routes in Scotland. Hence, this work obstructed his advancement with the steam engine. Following Roebuck's bankruptcy in 1772, Matthew Boulton, an English manufacturer and engineer associated with the Soho Works in Birmingham, acquired a share in Watt's patent. Disinterested in surveying and in Scotland, Watt relocated to Birmingham in 1774.		While working as a land surveyor in 1766, Watt remained consistently occupied for the next eight years, marking out canal routes in Scotland. Hence, this work obstructed his advancement with the steam engine. Following Roebuck's bankruptcy in 1772, Matthew Boulton, an English manufacturer and engineer associated with the Soho Works in Birmingham, acquired a share in Watt's patent. Disinterested in surveying and in Scotland, Watt relocated to Birmingham in 1774.
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	The next year, anticipating a fresh market in corn, malt, and cotton mills, Boulton encouraged Watt to create a rotary motion for the steam engine, replacing the original reciprocating action. In 1782, he secured a patent for the double-acting engine, where the piston both pushed and pulled. A new approach was required to firmly link the piston to the beam in this engine. In 1784, he addressed this issue by inventing the parallel motion, a system of interconnected rods that directed the piston rod in a perpendicular motion.		The next year, anticipating a fresh market in corn, malt, and cotton mills, Boulton encouraged Watt to create a rotary motion for the steam engine, replacing the original reciprocating action. In 1782, he secured a patent for the double-acting engine, where the piston both pushed and pulled. A new approach was required to firmly link the piston to the beam in this engine. In 1784, he addressed this issue by inventing the parallel motion, a system of interconnected rods that directed the piston rod in a perpendicular motion.


	<b>James Watt's later years</b>		<b>James Watt's later years</b>

			Demand for Watt's steam engine across various industries led to considerable wealth by 1790. In addition to his business success, Watt engaged in scientific pursuits, joining the Lunar Society and conducting experiments. Elected a fellow of the Royal Society of London in 1785, he eventually took holidays, acquired an estate, and gradually withdrew from business after 1795.

			During his extended retirement, marked by the loss of his son Gregory and several close friends, Watt and his wife traveled to Scotland, France, and Germany after the Peace of Amiens in 1802. Despite personal sorrows, he continued working in his equipped workshop, inventing a sculpturing machine to reproduce busts and figures for friends.

			Watt also served as a consultant to the Glasgow Water Company. His accomplishments were duly recognized, with honors including a doctorate of laws from the University of Glasgow in 1806 and a foreign associate position in the French Academy of Sciences in 1814 and a baronetcy, which he declined.


	<b>Legacy</b>		<b>Legacy</b>

	The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor. Certain scientists maintain that the introduction of the parallel motion (or double-acting engine) in 1784 marks the initiation of the Anthropocene Epoch—an unofficial period in geological time when human activities started to impact Earth's surface, atmosphere, and oceans significantly. After four years, he incorporated the centrifugal governor for the automatic regulation of the engine's speed, based on Boulton's recommendation, and in 1790, inventing a pressure gauge, he essentially finalized the Watt engine.		The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor.

			Certain scientists maintain that the introduction of the parallel motion (or double-acting engine) in 1784 marks the initiation of the Anthropocene Epoch—an unofficial period in geological time when human activities started to impact Earth's surface, atmosphere, and oceans significantly. After four years, he incorporated the centrifugal governor for the automatic regulation of the engine's speed, based on Boulton's recommendation, and in 1790, inventing a pressure gauge, he essentially finalized the Watt engine.

			Demand for Watt's steam engine across various industries led to considerable wealth by 1790. In addition to his business success, Watt engaged in scientific pursuits, joining the Lunar Society and conducting experiments. Elected a fellow of the Royal Society of London in 1785, he eventually took holidays, acquired an estate, and gradually withdrew from business after 1795.


	<b>Sources</b>		<b>Sources</b>

Didinious at 15:54, 7 January 2024

2024-01-07T15:54:21Z

← Older revision		Revision as of 15:54, 7 January 2024
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	<b>Legacy</b>		<b>Legacy</b>

	The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor. Certain scientists maintain that the introduction of the parallel motion (or double-acting engine) in 1784 marks the initiation of the Anthropocene Epoch—an unofficial period in geological time when human activities started to impact Earth's surface, atmosphere, and oceans significantly.		The Watt engine played a crucial role in shaping the Industrial Revolution by quickly integrating into numerous industries. Due to Watt's advancements in science and industry, the watt, a unit of power in the International System of Units (SI), representing one joule of work performed per second (or 1/746 horsepower), was named in his honor. Certain scientists maintain that the introduction of the parallel motion (or double-acting engine) in 1784 marks the initiation of the Anthropocene Epoch—an unofficial period in geological time when human activities started to impact Earth's surface, atmosphere, and oceans significantly. After four years, he incorporated the centrifugal governor for the automatic regulation of the engine's speed, based on Boulton's recommendation, and in 1790, inventing a pressure gauge, he essentially finalized the Watt engine.

	<b>Sources</b>		<b>Sources</b>

Didinious at 22:56, 6 January 2024

2024-01-06T22:56:37Z

← Older revision		Revision as of 22:56, 6 January 2024
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	Over the following five years, until 1781, Watt dedicated substantial time to the installation and supervision of numerous pumping engines for the copper and tin mines in Cornwall. Lacking business expertise, Watt had to endure tough negotiations to secure sufficient royalties for the new engines.		Over the following five years, until 1781, Watt dedicated substantial time to the installation and supervision of numerous pumping engines for the copper and tin mines in Cornwall. Lacking business expertise, Watt had to endure tough negotiations to secure sufficient royalties for the new engines.

	In 1782, he secured a patent for the double-acting engine, where the piston both pushed and pulled. A new approach was required to firmly link the piston to the beam in this engine. In 1784, he addressed this issue by inventing the parallel motion, a system of interconnected rods that directed the piston rod in a perpendicular motion.		The next year, anticipating a fresh market in corn, malt, and cotton mills, Boulton encouraged Watt to create a rotary motion for the steam engine, replacing the original reciprocating action. In 1782, he secured a patent for the double-acting engine, where the piston both pushed and pulled. A new approach was required to firmly link the piston to the beam in this engine. In 1784, he addressed this issue by inventing the parallel motion, a system of interconnected rods that directed the piston rod in a perpendicular motion.

	<b>James Watt's later years</b>		<b>James Watt's later years</b>

Didinious: This article included the first sentence before I completed it

2024-01-06T22:47:56Z

This article included the first sentence before I completed it

← Older revision		Revision as of 22:47, 6 January 2024
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	<b>Sources</b>		<b>Sources</b>

	* Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt~~. Accessed 6 January 2024~~.		* Kingsford, Peter W.. "James Watt". Encyclopedia Britannica, 14 Dec. 2023, https://www.britannica.com/biography/James-Watt.

	[[Category:Expansion]]		[[Category:Expansion]]