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Society: ASMEMain Category: MechanicalSub Category: Minerals Extraction & RefiningEra: 1950-1959DateCreated: 19551491 W. JeffersonTrentonState: MIZip: 48183Country: USAWebsite: http://www.asme.org/about-asme/history/landmarks/topics-m-z/minerals-extraction-and-refining/-104-basic-oxygen-steel-making-vessel-%281955%29, http://files.asme.org/ASMEORG/Communities/History/Landmarks/5498.pdfCreator: McLouth, Donald
This is one of the three original 60-ton vessels by which the basic oxygen process (BOP) of steel making was introduced into this country from Austria, where it was invented. It heralded the first new technology in fifty years to become the basis of a major process for steel production throughout the world. In this process, a water-cooled lance injected a jet of high-purity oxygen into the bath of molten iron. Various chemical reactions produced a quality low-nitrogen steel at a ton-per-hour rate nearly three times that of the open hearth furnace.
YearAdded:
1985
Image Credit: Courtesy ASMEImage Caption: Basic-Oxygen Steel Making VesselEra_date_from: 1955
The ASME Boiler and Pressure Vessel Code continues to impact modern day boilers and other types of pressure vessels.
Society: ASMEMain Category: MechanicalSub Category: SafetyEra: 1900-1909DateCreated: 1915Henry Ford Museum (Currently on loan to)DearbornState: MIZip: 48124Country: USAWebsite: http://www.asme.org/about-asme/history/landmarks/topics-m-z/safety/-138-asme-boiler-and-pressure-vessel-code-%281915%29Creator: Meier, Edward, Stevens, John

Published in 1914-15, the ASME Boiler and Pressure Vessel Code (BPVC) was the first comprehensive standard for the design, construction, inspection, and testing of boilers and pressure vessels. With adoption in the United States and use in many countries, it has contributed significantly to public safety and influenced the continued development of boiler and pressure vessel technology.

YearAdded:
1989
Image Credit: Courtesy of ASMEImage Caption: The ASME Boiler and Pressure Vessel Code continues to impact modern day boilers and other types of pressure vessels.Era_date_from: 1915
Society: ASMEMain Category: MechanicalSub Category: Air and Space TransportationEra: 1940-1949DateCreated: 1942Air ZooKalamazooState: MIZip: 49002Country: USAWebsite: http://www.asme.org/about-asme/history/landmarks/topics-a-l/air-and-space-transportation/-238-grumman-wildcat--sto-wing-wing-folding-mecha, https://www.asme.org/getmedia/2d64abc8-3fa3-4d29-92d4-40db4777e8b2/238-Grumman-Wildcat-Sto-Wing-Wing-folding-Mechanism.aspxCreator: Grumman, Leroy

The Wildcat's innovative "Sto-Wing" mechanism developed on the XF4F-4 prototype by Leroy (Roy) Grumman (1895-1982), a founder of Grumman Aircraft Engineering Corporation, was crucial to the U. S. Navy's success during World War II.

The idea of a folding wing was not new: as early as 1920, F.M. Osborne patented a high-wing monoplane with folding wings, but never produced this design. A 1928 plane with folding wings designed by W. Leonard Bonney crashed on its first flight.

YearAdded:
2006
Image Credit: Public Domain (US Navy)Image Caption: Grumman Wildcat “Sto-Wing” Wing-folding MechaEra_date_from: 1942
First practical US helicopter, pioneering the single-main-rotor concept
Society: ASMEMain Category: MechanicalSub Category: Air and Space TransportationEra: 1930-1939DateCreated: 1939Henry Ford MuseumDearbornState: MIZip: 48214Country: USAWebsite: http://www.asme.org/about-asme/history/landmarks/topics-a-l/air-and-space-transportation/-95-sikorsky-vs-300-helicopter-%281939%29, https://www.asme.org/getmedia/b997b811-c5c4-44e3-87d3-239bda559734/95-Sikorsky-VS-300-Helicopter.aspxCreator: Sikorsky, Igor I.

America's first practical helicopter, it pioneered the single main rotor concept that became the predominant helicopter configuration throughout the world. The principles that were developed and demonstrated by the VS-300 had direct application in the design of the early mass-production helicopter, marking the beginning of the world's rotorcraft industry.

The initial flight of the VS-300 was piloted by its designer, Igor I. Sikorsky (1889-1972), on September 14, 1939, in Stratford, Connecticut.

YearAdded:
1984
Image Credit: Courtesy ASMEImage Caption: Sikorsky VS-300 HelicopterEra_date_from: 1939
Quincy Mining Company No. 2 Mine Hoist
Society: ASMEMain Category: MechanicalSub Category: Materials Handling & ExtractionEra: 1920-1929DateCreated: 1920The Quincy Mine Hoist AssociationHancockState: MIZip: 49930Country: USAWebsite: https://www.asme.org/about-asme/who-we-are/engineering-history/landmarks/96-quincy-mining-company-no-2-mine-hoist, https://www.asme.org/getmedia/a59133b1-6a0e-4305-9e3d-096da65f88b1/96-Quincy-Mining-Company-No2-Mine-Hoist.aspxCreator: Quincy Mine Company

The largest mine hoist in the world, it serves the two incline skipways of Shaft No. 2, almost 9,300 feet long. The overhead winding drum has a diameter of 30 feet, of which the cylindrical center section is 10 feet long. The two 10-foot long end sections taper down to a 15-foot diameter. Wire hoisting ropes (almost 27 tons) could be wound onto a small end of the cylindrical drum as the other rope unwound from the cylindrical section.

YearAdded:
1984
Image Credit: Public DomainImage Caption: Quincy Mine No 2 Hoist House. Two cooling ponds sat alongside the hoist house which served the cross-compound condensed Nordberg engine. After passing through the condenser, hot water went through sprays to be cooled before recycling.Era_date_from: 1920
Michigan-Lake Superior Power Hydroelectric Plant
Society: ASMEMain Category: Electric, MechanicalSub Category: WaterEra: 1900-1909DateCreated: 1902Michigan-Lake Superior Power Hydroelectric PlantSaulte Sainte MarieState: MICountry: USAWebsite: http://www.asme.org/about-asme/history/landmarks/topics-a-l/electric-power-production-water/-61-michigan-lake-superior-power-hydroelectric-pla, https://www.asme.org/getmedia/9a6fbefb-8d74-4a9d-aaec-f5838421d7e4/61-Michigan-Lake-Superior-Plant.aspxCreator: Clergue, Francis, von Schon, Hans A.E.

This low-head operating plant is representative of nineteenth-century hydropower-plant practice using many small turbines in contrast to twentieth-century use of few large turbines and generators. Its 40,000 horsepower capacity made it the largest in the country using turbines of American design (McCormick-Francis). The contemporary and larger Niagara installation used turbines of French design (Fourneyron). The entrepreneur of this plant was Francis Clergue, a lawyer, who employed as his chief engineer Hans A.E. von Schon, a German immigrant who had served with the U.S.

YearAdded:
1981
Image Credit: Courtesy ASMEImage Caption: Michigan-Lake Superior Power Hydroelectric PlantEra_date_from: 1902
Society: ASMEMain Category: Electric, MechanicalSub Category: SteamEra: 1890-1899DateCreated: 1891Henry Ford MuseumDearbornState: MIZip: 48124Country: USAWebsite: http://www.asme.org/about-asme/history/landmarks/topics-a-l/electric-power-production-steam/-49-marine-type-triple-expansion--engine-driven-dy, http://files.asme.org/ASMEORG/Communities/History/Landmarks/5537.pdfCreator: Vleck, John Van, Joy, David

This machine, which began operation on December 15, 1891, for the New York Edison Illuminating Company, represents the beginning of large-scale electric power generation in the United States. The generator was designed by chief engineer John Van Vleck, David Joy (known in England for his valve gear), and S. F. Prest.

YearAdded:
1980
Image Credit: Courtesy ASMEImage Caption: Engine-Driven DynamoEra_date_from: 1891
Herbert Dow in 1888 Photo courtesy of the Post Street Archives.
Society: ACSMain Category: ChemicalSub Category: Industrial AdvancesEra: 1900sDateCreated: 1891 Herbert H. Dow Historical MuseumMidlandState: MIZip: 48640Country: USAWebsite: https://www.acs.org/content/acs/en/education/whatischemistry/landmarks/bromineproduction.html, https://www.acs.org/content/dam/acsorg/education/whatischemistry/landmarks/bromineproduction/first-electrolytic-production-of-bromine-historical-resource.pdfCreator: Herbert H. Dow

On January 4, 1891, Herbert H. Dow succeeded in producing bromine electrolytically from central Michigan’s rich brine resources. In the years that followed, this and other processes developed by Dow and the company he founded led to an increasing stream of chemicals from brines. The commercial success of these endeavors helped to promote the growth of the American chemical industry.

 

The plaque commemorating the event reads:

YearAdded:
1997
Image Credit: courtesy of the Post Street Archives.Image Caption: Herbert Dow in 1888
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