Coloured photograph of students with their designsballarat university college, mechanical design

Coloured photograph of students with their designsballarat university college, mechanical design

The A1 Gold Mine is located north of Woods Point, near Jamieson, in the Upper Goulburn region of Victoria. Gold was discovered at the A1 site in 1861 and mining operations began in 1864. The A1 Mine Settlement refers to a small township known variously as Castle Reef, Castle Point, and Raspberry Creek, which developed in the 1860s around mining industry centred on a crushing machine that worked the three gold reefs in the area. Historically, the name "A1"referred to the high quality of gold found in the quartz reefs at depths of at least two thousand feet. Along with the Morning Star mine at Woods Point, the A1 gold mine produced almost sixty percent of Victoria's gold output in the 1950s to 1970s and continued operating until 1992 when it went into administration. Operations at the site were revived in 2016 and the A1 Mine is now considered one of Victoria's premier gold mines. The A1 mine is part of the extensive and prospective Lachlan Fold Belt, a north-west trending belt of tightly folded Early Devonian sedimentary rocks extending from New South Wales to Victoria. Mineralisation is hosted within or immediately adjacent to diorite dykes. Contemporary development of the 'Queens Lode' at the A1 mine signals a move from high-grade, narrow vein airleg mining into larger scale, mechanical mining designed to increase ore production volume. This original, undated photograph of the A1 Mine appears to depict an area or phase of disuse or abandonment. The aged and humble appearance of the cottage suggests association with the historical A1 Mine Settlement, therefore the image may have been taken prior to the 1950s-1970s revival period in which the A1 mine is known to have produced high gold yields. The photograph contributes to our understanding of the A1 Gold Mine's impact on the landscape and the social, environmental impacts of mining on communities and may be compared with others in the Burke Museum's extensive collection of mining photographs to deepen our understanding of mining in the Jamieson area.Black and white rectangular photograph printed on photographic paperReverse: 5577 / A1 Mine / Near Jamieson / Vic. /burke museum, beechworth museum, beechworth, gold fields, gold rush, victorian gold rush, mining tunnels, gold ming history, colonial australia, australian gold rushes, mining technology, beechworth historic district, indigo gold trail, indigo shire, upper goulburn shire, jamieson, woods point-walhalla goldfield, a1 gold mine, victorian high country, modern mining methods, orogenic gold province, gold mineralisation, devonian, dykes

John Bliss (1795-1857) was born in Connecticut, trained as a silversmith and clock maker in Vermont, and began in business as a jeweller in New York around 1830. In 1834, now trading as Bliss & Creighton, he made and marketed chronometers and other items for navigational use. The firm became John Bliss & Son in 1855 and John Bliss & Co. in 1857. It remained in business until 1957. Truman Hotchkiss, a sea captain from Stratford, Connecticut, designed a mechanical Taff rail log in which the recording mechanism was placed on taffrail (or upper part of the stern) of the ship. After acquiring the rights to Hotchkiss’s patents of 1864 and 1867, John Bliss & Co. began advertising the "American Patent Taffrail Log." The firm also offered mechanical logs based on patents granted to John Bliss, Jnr and his brother George, as well as English instruments based on Massey’s and Walker’s patents.The SPECULANT is historically significant as the largest ship to have been registered in Warrnambool, and is believed to have been the largest barquentine to visit Melbourne. It is evidence of the final days of large commercial sailing vessels involved in the Victorian and New Zealand timber trade. The SPECULANT is listed on the Victorian Heritage Register VHR S626John Bliss Taffrail ship log incomplete, rope and spinner missing used on the vessel "Speculant " ( See "Notes" at the end of this document for further information) "Taffrail Log Patented Nov .. Apr .. June .. Sep 1.", dial registers 1/4, units and 10's. with 3 sets of dials, 2 with hands missingflagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, la bella, speculant, cumming and ellis, international timber trade, p. j. mcgennan and co. warrnambool, capt. james jacobsen, first mate: james munro, second mate: john scerling;, cook: b bond; a. b., s: v. sundring, s: h. hansen, s: b. melson, s: h. johnston, s: t. trumblen;, ordinary seaman: r. thompson, cape patton, c. ramsden, log, taffrail ship's log, ship log, john bliss, patent log, peter mcgennan

This Tangye B-size, single-cylinder, horizontal steam engine was likely manufactured in England around the mid-1880s. It was distributed by Melbourne machinery merchants Cameron & Sutherland, which also operated in Bendigo and Ballarat. A local cheese maker once used the engine to drive factory equipment. It was later donated to the Warrnambool Technical School, which then donated it to Flagstaff Hill to add to its historical steam engine collection. Between its manufacture and its donation to Flagstaff Hill, the governor had been replaced by the current Pickering governor. This engine design was very popular in the late 19th and early 20th centuries. When connected and powered up, the engine could drive an overhead line shaft via a flat belt off its flywheel. The line shaft would then drive the machinery via flat belts. It could drive virtually any type of machinery, such as water and sewerage pumps, mine elevators, winches, cranes, metal forges, air blowers, and marine machinery. This engine features a mechanical governor, which controls the speed of the engine regardless of whether it is under load. It also has a water pump built into the valve rod, which is used to supply the boiler with water. Steam enters the cylinder via a slide valve and applies pressure to the piston; it is like a modern internal combustion engine, but in the case of the steam engine, the pressure is exerted in turn on either side of the piston. In other words, the connecting rod is pushed by steam via the piston and piston rod and then pulled back again by steam pushing on the opposite side of the piston. Thus, power is exerted almost continuously, except at the end of each piston stroke, when it reverses direction. In the 1880s, many local butter and cheese manufacturers installed Tangye steam engines to power their machinery. A comprehensive article in the Gippsland Mercury in September 1889 extolled the magnificence of the Farnham Butter Factory in Dennington, Warrnambool, and described how one Tangye engine was used to drive several machines in the cheese- and butter-making processes. A report in the Warragul Guardian in December 1890 notes that the newly opened Warrnambool Butter Factory used a Tangye steam engine to pump water from a 60-foot well. Tangye: Richard Tangye (1833–1906) and four of his brothers—James, Joseph, Edward, and George—were the sons of Joseph Tangye, a Quaker Cornish miner. In 1857, they founded the engineering firm Richard Tangye & Brothers in Birmingham, UK. In 1860, the firm became Tangye Brothers and moved to Cornwall Works in Birmingham. The business encouraged inventors to join the company and develop their patents there, as happened with Weston’s differential pulley block, invented by the Englishman Thomas Aldridge Weston in 1854. Tangye bought the patent in 1858, giving the firm the sole right to manufacture it. The design received a medal for “original application, practical utility and success” at the 1862 International Exhibition in London. Also in 1858, the Tangye firm was commissioned by Brunel’s shipping company to manufacture hydraulic lifting jacks, or rams, to launch the steamship SS Great Eastern. The success of this project brought favourable attention to the firm, and it became involved in other notable projects, including the erection of Cleopatra’s Needle in London in 1878 and work on the Forth Road Bridge in Scotland. The firm underwent several name changes over the years, including James Tangye and Brothers (1857), Tangye Brothers and Price (1859), Tangye Brothers (1860), Tangye Brothers & Holman (1876), Tangye Brothers (by 1878), Tangye Ltd. (1881), and then simply Tangye. Its machinery and equipment were exported worldwide. In 1884, a branch with showrooms, offices, and a warehouse was opened in Melbourne at Cornwall House, Collins Street West. The firm was well known for producing high-quality machinery for agriculture and industry. Even today, new Tangye machinery is available for a subsidiary of Allspeeds. An extensive account of the firm’s history, names, inventions, and further references is available in Grace’s Guide, which also includes references to and diagrams of the Tangye horizontal steam engine. The horizontal steam engine was made by the well-known engineering firm Tangye, known for its high quality of manufacture. It was an important development in machinery because it helped improve productivity. Engines of this type are still used in some parts of the world today. This engine is a good example of a late 19th-century steam engine used in industry and agriculture and adapted for many different purposes. It is also important locally because it was connected to a local cheese making business and part of the thriving western district dairy industry. It may have been one of the Tangyes engines used at the Farnham butter factory or the Warrnambool Butter Factory, which was reported to be one of the most important in the Colony. It is also connected to the Warrnambool Technical School, established in 1968. Steam engine: stationary Tangye Size B, single-cylinder, horizontal Mill type steam engine. It has a 4-inch diameter cylinder with an 8-inch stroke. The body is painted green, and the Pickering governor is red. It was manufactured in Birmingham, England, in accordance with Tangye's Patent 238930, and distributed by Cameron and Sunderland, Melbourne, in the mid-1880s. TANGEYS PATENT BIRMINGHAM B SIZE 238930 CAMERON & SUTHERLAND MELBOURNE THE PICKERING PORTLAND . GOVERNOR . CONN. U.S.A.flagstaff hill, warrnambool, maritime village, maritime museum, flagstaff hill maritime museum and village, shipwreck coast, great ocean road, machine, invention, engine, steam, steam engine, horizontal steam engine, tangyes horizontal steam engine, stationary steam engine, single cylinder steam engine, manufacturing, farming, pumps, lifting equipment, engines, machine tools, hydraulic rams, hydraulic pumps, steam pumps, differential pulleys, mill type steam engine, 4 inch cylinder, weston’s differential pulley, thomas aldridge weston, 1862 international exhibition in london, brunel, ss great eastern, cleopatra’s needle, forth road bridge, cornwall house, collins street melbourne, agricultural machinery, industrial machinery, allspeeds, dairy, pump, richard tangye & brothers, james tangye and brothers, tangye brothers and price, tangye brothers, tangye brothers & holman, tangyes ltd., tangye, richard tangye, james tangye, joseph tangye, edward tangye, george tangye, cornwall works, birmingham, pickering governor, pickering portland connecticut usa, 19th century, dairy plant, steam power, tangye's patent 238930, tangye b size engine, cameron & sutherland, machine merchants, 1880s, mid-1880s, cheese manufacturer, butter manufacturer, diary industry, warrnambool technical school, belt driven machinery, agriculture, mechanical governor, farnham butter factory, warrnambool butter factory

The Excelsior IV Log is a nautical instrument for measuring a vessel’s speed and distance travelled. When navigating a ship it is essential to be able to estimate the boat’s speed and distance travelled to determine its position at sea. In times past the only way to measure a ship’s speed was to throw a wood log into the water and observe how fast it moved away from the ship. In the 16th century, the log was fastened to a rope knotted at set intervals. The log was thrown over the stern (back) of the vessel and a crew member counted the number of knots that were paid out in a set time. From this, they could estimate the speed of the vessel through the water. This was known as streaming the log and is also the derivation of the knot as a measurement of nautical speed. The Walker’s Excelsior Mark IV instrument was designed for smaller vessels, such as yachts, launches and fishing vessels. Historical: Thomas Walker & Son was internationally renowned in the manufacturing of ships logs, founding father , Thomas Walker (1805–1871), an engineer in Birmingham, patented a mechanical log in 1878 which was a recording instrument that attached to a rail at the stern of a vessel connected by a long cord with a rotor which was towed behind the ship. The instrument dial recorded the distance travelled. Thomas Walker first went into business to manufacture stoves at 58 Oxford Street Birmingham. Walker’s self-feeding stove was widely lauded at the Paris Exhibition of 1855, winning a prize medal and kick starting the first of many notable innovations for the Walker family's manufacturing business. However, it wasn’t until working on an earlier ship’s log model invented by his Uncle that Thomas Walker became interested in the further development of this device, used to ascertain a ship’s speed. Walker continued to improve on the common log for the company of Massey & Sons and these improvements were deemed revolutionary. This log became a firm favourite of the West India Association (British-based organisation promoting ties and trade with the British Caribbean), being the most common log in use for two generations. It took until 1861 for Thomas Walker and his son, Thomas Ferdinand Walker (1831-1921) to patent the first Walker log of many. Together, with the introduction of the A1 Harpoon Log two years later, they established the Walker Log Business as a force to be reckoned with. By the time of his passing in 1871, Thomas Walker Snr had not only founded a family business with considerable staying power but also instilled a tradition of public service. Having sat as a representative on the Birmingham Town Council for 15 years and played an active role in public works, he was soon given the nickname of ‘Blue Brick Walker’. Much like his father, Thomas Ferdinand Walker changed the face of the maritime industry. His patent of 1897, the ‘Cherub’ log, was a notable departure from the past providing a far more accurate reading and replacing the majority of logs of the age. They were the first to produce an electric log and the Walker factory was one of the first to introduce the 48 hour work week for employees. The ship log was invented and made by a significant marine instrument maker and innovator of machinery. It demonstrates the huge leap taken to improve navigational accuracy at sea with an instrument that was in use for decades.Ship's Taff Rail Log, rope attached. Walker's Excelsior IV Log model. Nautical miles dials: units and 10's. "Walker's Excelsior IV Log", "Made in England by Thomas Walker, Birmingham"flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, log register, taff rail log, taffrail log, marine navigation, a1 harpoon log, cherub’ log, walker’s excelsior mark iv log, ship’s log instrument, mechanical ship’s log, measure ship’s speed, nautical instrument, navigation instrument, massey & sons, thomas walker, blue brick walker, thomas walker & son, thomas ferdinand walker, 48 hour work week

This woodworking lathe, connected to both a pulley and a flywheel, demonstrates its historical operation with a steam engine. Such a configuration reflects manufacturing practices from the late 1800s and early 1900s, when steam power was the predominant source for driving workshop and factory machinery. Large machine shops often utilised a single power source, distributing power via roof-mounted belts and pulleys to operate several machines simultaneously. Over time, petrol-driven motors were introduced, and eventually, electricity became the standard power source. Conversion kits were made available in the late 19th and early 20th centuries to adapt older lathes to these newer, cleaner fuels. Manufacturer's History: W.F. & J. Barnes was a renowned maker of hand- and foot-powered treadle woodworking and metalworking machinery, established in 1869. The partnership between William F. Barnes and John Barnes was formalised in 1872, and the firm was incorporated in 1884. Their machines were used for both ‘farm’ applications and professional engineering. By 1881, the company began producing electrically powered machinery. By 1937, W.F. & J. Barnes expanded into manufacturing machinery for automotive assembly. The business closed in 1983, and in 1998, LeBlond Ltd. of Ohio acquired the firm. The lathe was donated by Briggs Marine, Melbourne: In Flagstaff Hill’s formative years, 1972-1975, Briggs Marine, Melbourne (Briggs Brass Foundry), donated equipment and objects used or made at their premises. The foundry was established in 1912 by Herbert Harrison Briggs. In 1965, the firm was owned by partners Cyril Briggs and Frank Lee: Cyril died in 1967, and Frank died in 1971, so the foundry was then run by his son and daughter-in-law, Les and Eva Lee. Briggs Marine’s Warrnambool Branch closed in 1972 after the death of Frank Lee in 1971. Flagstaff Hill’s founding director, John Lindsay, recalled that Briggs Marine’s family members gave personal assistance in setting up the displays in the original village shops, particularly the ‘Brass Foundry’ building, around the time the Maritime Museum opened in 1975. Briggs Marine still exists today, but the Briggs family is no longer involved. This early 1900s lathe marks a significant stage in the evolution of machinery, positioned between the era of hand-operated machines and the advent of electrically powered equipment. Its presence exemplifies the progression of industrial technology and craftsmanship during this period. The lathe is particularly notable for its association with the Briggs Brass Foundry. The foundry was known for developing a specialised brass alloy composed of non-ferrous metals, a formulation that resulted in durable products built to withstand the demanding conditions of marine environments. This focus on resilience and longevity made Briggs Brass Foundry’s goods highly sought after within the maritime sector. Briggs Maine, a long-established business, utilised the foundry’s capabilities to create cast goods tailored to the needs of the marine industry. The facility was equipped to deliver both custom-designed and mass-produced items, ensuring versatility in meeting various requirements. Many of Briggs Foundry’s products found their place on sailing and steam vessels throughout Victoria’s coastline, including in the port town of Warrnambool, where there was once a brancy of Briggs Marine. In addition to general marine fittings, Briggs Marine earned recognition for its expertise in bell-founding. The foundry’s reputation is closely linked to the restoration of the Schomberg Bell at Flagstaff Hill, a small but historically significant bell from a luxury migrant vessel dating back to the mid-19th century. The successful restoration of the Schomberg Bell demonstrates Briggs Brass Foundry’s commitment to preserving craftsmanship and maritime heritage.The lathe is a green, bench-type, steam-powered woodworking machine. Its bench is supported by decorative posts at each end, with each post dividing into arched legs. The lathe is mechanically connected to both a pulley and a flywheel, designed to be operated in conjunction with a steam engine. Included with the lathe is a range of accessories. Across the front of the machine, an inscription is cast, and a stamped, metal lathe pulley guide is attached to the drive mechanism. The lathe was manufactured by W. F. and J. Barnes, Rockford, Illinois, USA, during the 1900s.“W F and J Barnes, Rockford, USA” "1820" "1887"flagstaff hill, flagstaff hill maritime museum and village, warrnambool, maritime museum, maritime village, great ocean road, shipwreck coast, lathe, steam-operated lathe, steam-operated pulley, steam power, steam engine, machine, steam operated machine, metal work, foundry work, metal working trade, tool, pulley driven, metalworking, woodworking, barnes lathe, briggs marine, belt driven, wordworking lathe, free standing lathe, bench lathe, steam powered, vintage lathe, woodturning lathe, w. f. and j. barnes, illanois, early 20th century, briggs, briggs brass foundry, briggs marine foundry, briggs marine products, herbert harrison briggs, george edward briggs, cyril falkiner mckinnon briggs, collingwood, moorabbin, frank lee, les lee, eva lee, briggs marine warrnambool, non-ferrous founders, bell specialists, ship bell specialists, sand cast, marine equipment, marine fittings, foundry, brass foundry, founders

William Henry Maw was a British civil engineer and astronomer. He was born in 1838 and died in 1924 at eighty-five years. Maw worked as an assistant at the workshops of the Eastern Counties Railway before he became a draughtsman in the design office. He designed the first outside cylinder locomotive for use in India. In 1865 he founded the journal Engineering and continued to be an editor for the rest of his life. Maw became a consulting engineer. He was president of the Civil and Mechanical Engineers' Society, the Institution of Mechanical Engineers and the Institution of Civil Engineers. This book contains a wide range of articles and reviews related to industrial developments such as rail mill engines at the Dowlais iron works (constructed by Messrs. Kitson and Co., engineers, Leeds), cable tramway, Clay-street, San Francisco, U.S.A., road and railway bridge over the river Dnieper, at Jekaterinoslow, Russia (constructed from the designs of Professor N. Belelubsky, St. Petersburg, by the Brjonsk iron works) etc. A book with blue large hard cover. Title and publication date are written on spine in gold. Illustrations (fig., plates, plans, diagrams) in B/W. Includes collection of the engineering weekly journal vol. xxxix-from January to June 1885. This book contains a wide range of articles and reviews related to industrial developments. Page no.712.machinery, tools, engines, engineering, railroad, w h maw, rail, mill engines, cable tramway, clay street, dowlais iron works, twin screw engines, royal italian torpedo ram vessel, messrs r and, w hawthorn engineers, electro plated carriage, the tehuantepec ship railway, otis elevator

Lindsay F.J. Hillman was born in Ballarat in 1910, and attended the Ballarat Junior Technical School. He became a cadet in Electrical Engineering Laboratory at the Ballarat School of Mines where he gained eventually gained a student Teachership for diploma studies at the School. Hillman was particularly active and excelled in a wide range of sporting interests and in student activities. In 1928 and 1928 he was awarded the Ballarat School of Mines Honour blazer by the Old Boys' association for all round athletic ability, leadership and scholarship. After spending two years with the Melbourne City Council Electric Supply Department gaining industrial experience Hillman was awarded his Diploma of electrical engineering in 1931, returning to the School in 1932 to teach apprentices and senior students. Hillman was appointed lecturer in Engineering Design and Graphics in 1937, lecturer in Engineering Design and Civil Engineering in 1944, Lecturer-in-Charge of Mechanical and Civil Engineering in 1948 and Head of the Electrical Engineering Department in 1949, a position he held until his retirement in 1973. In 1975 Lindsay Hillman was appointed to the Council of the Ballarat School of Mines and played an active role in school affairs.As Vice-President of Council from 1981 until his death in 1991 Hillman took a leading part in the implementation of many of the major building projects on the Lydiard Street Campus. The L.F.J. Hillman Award was established by the Ballarat School of Mines Council in conjunction with and through the generosity of the Hillman family in honour of the late Lindsay Frederick John Hillman. The bronze medal was presented annually to an enrolled student in an accredited course in the field of electrical/electronics studies at the Ballarat School of Mines. specific Criteria for the Award consisted of a balance of academic performance, leadership qualities, commitment to further study and involvement in sporting and/or community groups. Bronze medal designed depicting the portrait of Lindsay Hillman. The medal has a copper finish, and is presented in a blue hinged box. The first Hillman Award was presented in 1992. The recipients are: 1992 - Brett A. Hovey 1993 - Nil 1994 - Brent L. Ferguson 1995 - Kirsty McKenzie 1996 - Peter J. White 2000 - Roger Bush 2001 - Thomas Edward George 2002 - Mark William Holden 2003 - David James Hopwood 2004 - Leighton Dunn 2005 - Donald Pirouet 2006 - Mark Irvin 2007 - Ricky Wilson 2008 - Luther Dean 2009 - Daniel Thatcher 2010 - Craig Coulter 2011 - Sarah Draper 2012 - Rhys Hendrickson 2013 - Jayden Hooper "Lindsay Hillman Memorial Medal" Verso: "The School of Mines and Industries Ballarat, Est. 1870 Presented to "ballarat school of mines, hillman, lindsay hillman, medal, numismatics, honour blazer, electrical engineering, electronics, hillman medal, hillman award

Lindsay F.J. Hillman was born in Ballarat, and attended the Ballarat Junior Technical School. He became a cadet in Electrical Engineering Laboratory at the Ballarat School of Mines where he gained eventually gained a student Teachership for diploma studies at the School. Hillman was particularly active and excelled in a wide range of sporting interests and in student activities. In 1928 and 1928 he was awarded the Ballarat School of Mines Honour blazer by the Old Boys' association for all round athletic ability, leadership and scholarship. After spending two years with the Melbourne City Council Electric Supply Department gaining industrial experience Hillman was awarded his Diploma of electrical engineering in 1931, returning to the School in 1932 to teach apprentices and senior students. Hillman was appointed lecturer in Engineering Design and Graphics in 1937, lecturer in Engineering Design and Civil Engineering in 1944, Lecturer-in-Charge of Mechanical and Civil Engineering in 1948 and Head of the Electrical Engineering Department in 1949, a position he held until his retirement in 1973. In 1975 Lindsay Hillman was appointed to the Council of the Ballarat School of Mines and played an active role in school affairs.As Vice-President of Council from 1981 until his death in 1991 Hillman took a leading part in the implementation of many of the major building projects on the Lydiard Street Campus. The L.F.J. Hillman Award was established by the Ballarat School of Mines Council in conjunction with and through the generosity of the Hillman family in honour of the late Lindsay Frederick John Hillman. The bronze medal was presented annually to an enrolled student in an accredited course in the field of electrical/electronics studies at the Ballarat School of Mines. specific Criteria for the Award consisted of a balance of academic performance, leadership qualities, commitment to further study and involvement in sporting and/or community groups. The first Hillman Award was presented in 1991. The recipients are: 1991: Paul Donald 1992 - Brett A. Hovey 1994 - Brent L. Ferguson 1995 - Kirsty McKenzie 1996 - Peter J. WhiteEighteen colour photographs of the signing of the Hillman award agreement and the first presentation of the award in 1991 to Paul Donald . .2) Gregor Hillman, Judith Tinney and Caroline Bethune .4) Judith Tinney or Caroline Bethune and Bill Gribble sign the agreement .8) Gregor Hillman, Judith Tinney and Caroline Bethune sign the agreement, along with President of the Ballarat School of Mines, Bill Gribble. .10) Paul Donald with his L.F.J. Hillman Award, 1991 .11) Ballarat School of Mines Principal, Peter Shiells, speaks at the lectern watched on by members of the Hillman family.ballarat school of mines, hillman, lindsay hillman, medal, numismatics, electrical engineering, electronics, gregor hillman. judith tinney, caroline bethune, tinney, bethune, hovey, ferguson, mckenzie, white, paul donald, donald

The Ballarat School of Mines was the first Technical School on Australia..1) Ballarat School of Mines Annual Report .2) Ballarat School of Mines calendar The Ballarat School of Mines Calendar and Annual Report 1896. Associateship of The School, Calendar for 1896, Certificates Granted by Education Department 1894, Certificates Issued by The School 1895, Certificates Issued Prior to 1895, Certificates Issued by Education Department 1895, Examiners, Examination Fees, Fees, Honorary Correspondents, Life Governors, Meteorological Observations, Number of Students attended The School, Office Bearers, Professors and Lecturers, Report of the Superintendent of Laboratories, Report of the Professor of Mineralogy, Geology and Botany, Report of the Professor of Engineering, Report of the Lecturer on Mathematics, Report of the Instructor in Engineering Drawing, Report of the Lecturer on Electricity, Report of the Teacher of Drawing, Report of the Lecturer in Veterinary Science, Statement of Receipts and Expenditure for year 1895, Statistics - Student attending Lectures, Subscriptions and Donations, Subjects Included in Regulations Technical Schools, Time Tableballarat school of mines, examiners, examination fees, fees, honorary correspondents, life governors, meteorological observations, number of students attended the school, office bearers, professors and lecturers, report of the superintendent of laboratories, report of the professor of mineralogy, geology and botany, report of the professor of engineering, report of the lecturer on mathematics, report of the instructor in engineering drawing, report of the lecturer on electricity, report of the teacher of drawing, report of the lecturer in veterinary science, statement of receipts and expenditure for year 1895, statistics - student attending lectures, subscriptions and donations, subjects included in regulations technical schools, time table, annual report, calendar, andrew anderson j.p. - president, hon. r. t. vale - vice president, r. denham pinnock - vice president, the hon. sir w. j. clarke - trustee, the hon. john warrington rogers - trustee, the right reverend samuel thornton - trustee, andrew anderson - trustee, james millhinch - trustee, james oddie - trustee, the hon. henry cuthbert - honorary solicitor, r. g. middleton - honorary treasurer, charles kent - auditor, fred. j. martell - director and registrar, professor alf. mica smith - chemistry, metallurgy, natural philosophy, professor purdie - geology, mineralogy, principles of mining, professor g. j. dawbarn - mine and land surveying, mining mechanics, hydraulics, civil engineering, applied mechanics, j. rowe - practical mining, w. huey steele - electrical technology, electricity and magnetism, d. walker - chemistry and natural philosophy, w. e. bennett - mathematics, henry j. hall - freehand and perspective drawing, a. e. c. kerr - mechanical drawing (machine construction and design), j. f. usher - paleontology, zoology, materia medica, professor purdie - botany, george clegg - building construction, l. hart - photography, h. g. a. brown - carpentry, r. e. weir - veterinary science, daniel walker, henry cuthbert, james millhinch, jams oddie, j.f. usher

In 1902, William E Sessions and other family members purchased a controlling interest in the E.N. Welch Company, a clock manufacturer located in Forestville, Connecticut. Sessions' father owned a foundry located in the town of Bristol, Connecticut that produced cases for E.N Welch Co. On January 9, 1903, the company was reorganized and registered as The “Sessions Clock Company”. Within a few years the Sessions Clock Company was producing clock movements, cases, dials, artwork and castings for their line of mechanical clocks. Between 1903 and 1933 Sessions produced 52 models of mechanical clocks, ranging from Advertisers, large and small clocks with logos of various businesses, to wall, or regulator clocks, and shelf or mantel clocks, designed for the home. Many of the Session clocks from this period are prized by collectors. In 1930, the company expanded to produce electric clocks and timers for radios, while continuing to produce traditional brass mechanical movements. Beginning at the end of World War II Sessions W Model (electric) was widely used by various casting companies for their clocks. The dial of the W Model read Movement by Sessions. In the early 1950s Sessions begin to produce timers for television. In 1956, Sessions was absorbed by a company interested mainly in their timing devices. In 1959, William K. Sessions, grandson of William E. Sessions left the Sessions Clock Company and formed the New England Clock Company. In 1960, one of the Sessions Clock buildings was sold to the Bristol Instrument Gears Company. Kept as the Sessions Company, the new owners ran the operation until 1969 when changes in the market forced the Sessions Company into liquidation. In 1970, the remaining buildings were sold to Dabko Industries, a machine parts manufacturer.The item marks a time when clock production in America was at it’s peak producing clocks for sale in many countries, they were keenly priced, mass produced and available to all. The company had a relatively short life span life regards clock manufacture later diversifying into electric timer mechanisms. Yet it was perhaps inevitable with the advent of electricity along with stiff competition from other clock manufactures that would ultimately herald the end in 1935 of the Sessions company's ability to continue manufacturing mechanical clocks. Clock mantle type face set in a painted black case designed to represent a Greek building with gold decorative pillars. Free standing with decorative feet. No markings or inscriptions on clock case or mechanism flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, sessions, mantel clock, clock, clock industries

This detailed handwritten documentation was made by the owner Mariner, G W Duncan for use in his role as a member of the engineer crew.Mariner Duncan had a particular regard for the Mission to Seafarers. This plate for display on a commissioned new table at the MTSV chapel acknowledges his bequest and the material donated. Collectively the G W Duncan material includes: photographs, professional data memorabilia and written and commercially printed resources. The memorabilia relates to his career at sea and in particular the role of an engineer, including a handwritten manual of notes and references relating to the mechanical and engineering aspects and areas of responsibility for maintenance. Commercially printed ledger book with marbled board covers originally spine bound with red cloth ribbon tape (now detached see condition report). The book is designed to be used as a handwritten detailed reference and manual for use by engine room and maintenance supervisor (see image 2) Handwritten content in blue ink. mariner manuals, ship engines, ship maintenance, george winfield duncan (1922-2017), ship engineer, s.s. athenic

This menu appears to have been produced for the 1947 Maiden Voyage of the S.S. Athenic travelling between London and New Zealand via Curacao and Panama. This was possibly the first voyage on this vessel early in his career for engineer G. W. Duncan and therefore a souvenir. The commander of the vessel was D. Aitchinson. Also of interest given that the UK was still very much governed by post WW2 rationing, is the range of food available for the farewell dinner listed.Mariner Duncan had a particular regard for the Mission to Seafarers. This plate for display on a commissioned new table at the MTSV chapel acknowledges his bequest and the material donated. Collectively the G W Duncan material includes: photographs, professional data memorabilia and written and commercially printed resources. The memorabilia relates to his career at sea and in particular the role of an engineer, including a handwritten manual of notes and references relating to the mechanical and engineering aspects and areas of responsibility for maintenance. Single fold card menu cover with typed paper menu listing adhered to inside cover. The cover features an imaginary asian design featuring water lilies , willow leaves and a misty sun, colours are gold green pink.see images 1 and 2 attachedmenu, ss athenic, shaw savill line, george winfield duncan (1922-2017), sailors, seafarers, passenger ships, ship engineer

Sport and available playing areas were important and every effort was made to provide this for the students when they moved into the new building in 1921. The terraces leading down from the gaol wall were terraced and clearing areas of rubble to provide playing areas for football and cricket was done by the students. In November 1922, a tennis court was opened in the Battery Paddock. It was designed by Syd Chambers and constructed by Les Waller, former students of the Ballarat School of Mines. A new tennis court was built and opened in 1934, in the same area. This photograph is of the 1938 Tennis Team - Ballarat Junior Technical School. The boys standing are L to R: D. Eltringham and J. Burt. Seated on the left is W. Rowe and W. Edwards on the right. They are with Mr J. Hosie - staff member 1938-41. Donald Eltringham was Dux of the school in 1938. He obtained a Diploma in Electrical Engineering and Mechanical Engineering from the School of Mines Ballarat - 1944/47A formal group of four boys in tennis outfits with racquets and one adult male.Photographer's stamp embossed on front with rubber stamp on back "Richards & Cc - photographers - Ballarat. In pencil - "Jun Tech" and "1938"tennis court, battery paddock, syd chambers, les waller, ballarat school of mines, 1938 tennis team, ballarat junior technical school, eltringham, burt, rowe, edwards, j. hosie, electrical engineering, mechanical engineering

The Ballarat School of Mines Annual Report 1893. Annual Report, Examination Papers, Associateship of The School of Mines, Syllabus for Technical Schools, Crown Grant, Affiliation Statute, Certificates Granted by the Council, Clunes Branch Report, Departmental Expenditure, Fees, Form of Bequest, General Balance Sheet and Liabilities and Assets, Honorary Correspondents, Life Governors, Meteorological Observations, Number of Students attended The School of Mines, Office Bearers, Practical Treatment of Ores, Report of the Professor of Mineralogy and Geology and Curator of the Museum, Report of the Superintendent of Laboratories, Report of the Lecturer on Engineering and Surveying, Report of the Lecturer on Mathematics, Report of the Lecturer in Mechanical Drawing, Machine Construction and Design, Report of the Lecturer on Electrical Engineering and Telegraphy, Report of the Lecturer on Botany, Report of the Lecturer on Biology, Pharmacy, Materia Medica, Report on Mining Laboratory, Examinations Held, Scale of Charges for Assays and Analyses, Statement of Receipts and Expenditure for the year 1892 and Special Trust Funds, Statistics - Students attending Lectures, Subjects and Lecturers, Subjects and Examiners, Subscriptions and Donations from 1st January to 31st December 1892, Syllabus of Lecture Courses6188: The Ballarat School of Mines Industries and Science Calendar and Annual Report, 1893. Red soft cover is browning around the edges, spine is tattered, 156 pages. 6188.2: Red soft covered booklet of 26 pages, Office Copyballarat school of mines, annual report, andrew anderson j.p. - president, f. j. martell - vice president, r. denham pinnock - vice president, rivett henry bland - trustee, the hon. sir w. j. clarke - trustee, the hon. john warrington rogers - trustee, james oddie - trustee, the hon. henry cuthbert - honorary solicitor, r. g. middleton - honorary treasurer, charles kent - auditor, andrew berry - registrar, alf. mica. smith - chemistry, metallurgy, f. m. krause - geology, mineralogy, mining, j. h. horwood - mechanical engineering, machine drawing and design, theoretica and applied mechanics, mathematics, henry j. hall - freehand and model drawing, j. a. dawson - electricity and magnetism, george day - botany, e. gutheil - biology, materia medica, pharmacy, a. e. c. kerr - mechanical drawing, machine construction and design, e. gutheil - biology, pharmacy, materia medica, henry crone - assistant registrar of titles, henry b. loch, elder gray - president, clunes branch, harry e. sando - registrar, clunes branch, w. y. witherden - hon. treasurer, clunes branch