Showing 13 items
matching heat energy
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Moorabbin Air Museum
Book - Meteorology, Meteorology for Pilots
... Heat energy... Weather maps Structure of the atmosphere Moisture Heat energy ...Text on meteorology forM us Civil Aeronautics Administrations War Training Services, circa 1943non-fictionText on meteorology forM us Civil Aeronautics Administrations War Training Services, circa 1943aviation weather, meteorological elements, weather maps, structure of the atmosphere, moisture, heat energy, fronts, wind, circulation, fog, storms, ice on aircraft, miscellaneous weather topics -
Federation University Historical Collection
Book, Franklin B. Carroll, Understanding Our World, 1939, 1939
... climate water plants energy heat magnetism electricity B.H.T.S ...Graham Beanland became a Principal at the Ballarat School of Mines. Green hardcovered book awarded to Graham. Beanland for first prize (Progress and Results) at B.H.T.S. The book has many illistrations. B.H.T.S. Awarded to G.H. Beanland. First Prize Progress and Results Section 2 E.H. Beanland Principal 17-12-43graham beanland, g.h. beanland, c.h. beanland, stars, planeta, seasons, weather, climate, water, plants, energy, heat, magnetism, electricity -
The Beechworth Burke Museum
Geological specimen - Brown Coal
Brown Coal is typically found as rocks. During formation the Brown Coal starts as peats, which is an acidic brown deposit resembling soil, and over time when subjected to pressure and heat these peats form the Coal. Brown Coal is the lowest rank of coal as it has a low carbon (energy) content, and a high moisture content. This high moisture content makes Brown Coal unsuitable for overseas exports. This particular specimen was recovered from the Yallourn Mine in Latrobe Valley, Victoria as part of the geological survey of Victoria being carried out by Alfred Selwyn. Otherwise known as the 'Yallourn Power Station', the Yallourn Mine is Australia's second largest mine. Yallourn Mine was first built in 1920, and since then it has been providing over 1 billion tonnes of Brown Coal to Australia every year. The Yallourn Mine is responsible for 22% of Victoria's electricity and 8% of Australia's electricity. As of 2021 the mine employs around 500 people. Due to ongoing maintenance issues and Australia's move to cleaner energy, the Yallourn Mine intends to shut down permanently as of 2028. Soon after gold was discovered in 1851, Victoria’s Governor La Trobe wrote to the Colonial Office in London, urging ‘the propriety of selecting and appointing as Mineral Surveyor for this Colony a gentleman possessed of the requisite qualifications and acquaintance with geological science and phenomena’. Alfred Selwyn was appointed geological surveyor in Australia in 1852 which began the Geological Survey of Victoria. In 1853-69 the Geological Survey issued under Selwyn's direction sixty-one geological maps and numerous reports; they were of such high standard that a writer in the Quarterly Journal of the Geological Society of London bracketed the survey with that of the United States of America as the best in the world. During his years spent in Australia, Selwyn collected numerous significant geological specimens, examples of which are held in collections such as the Burke Museum.Brown coal is considered to be an essential rock to Australia's energy consumption. Although plentiful in sources, Brown Coal is not able to be exported overseas due to its high moisture content. As Australia moves towards cleaner energy, Brown Coal is going become less used. This specimen is part of a larger collection of geological and mineral specimens collected from around Australia (and some parts of the world) and donated to the Burke Museum between 1868-1880. A large percentage of these specimens were collected in Victoria as part of the Geological Survey of Victoria that begun in 1852 (in response to the Gold Rush) to study and map the geology of Victoria. Collecting geological specimens was an important part of mapping and understanding the scientific makeup of the earth. Many of these specimens were sent to research and collecting organisations across Australia, including the Burke Museum, to educate and encourage further study.A solid hand-sized sedimentary rock that is a dark shade of brown.13 / BROWN COAL / Showing Woody structure / Locality: Yallourn, Vic. | Label probably / correct but / can't find reference / no. 13 to match in / registers. / C Willman / 15/4/21burke museum, beechworth, indigo shire, beechworth museum, geological, geological specimen, mineralogy, yallourn, yallourn mine, victoria, coal, brown coal, brown coal specimen, alfred selwyn, geological survey of victoria, geological survey, yallourn power station -
Eltham District Historical Society Inc
Photograph - Digital Photograph, Jim Connor, River Bend House, 130 Laughing Waters Road, Eltham, 7 September 2013
Laughing Waters Walk, 7 Sep 2013 This Society excursion was a follow up to the Laughing Waters Story told to us by Jane Woollard at our Annual General Meeting in March 2013. It involved a walk commencing from the corner of Laughing Waters and Overbank Roads along Laughing Waters Road to its eastern end and returning partly over the same route - a total distance of about 2.5km. On the way we visited the two artist in residence properties, River Bend and Birrarung, to view the houses on them that are associated with Alistair Knox, Gordon Ford and others in the local mud brick and artistic community. We also able to walk around the derelict ruin which was once home to Gordon and Sue Ford, Boomerang House. An unexpected afternoon tea was offered to us by the artists in residence at Birrarung House and we had a brief opportunity to view inside the house. River Bend was designed and built by Alistair Knox for Rosemary and Bill Cuming in 1968. It sits in a deep cutting on a steep slope above the Yarra River and features floor to ceiling windows and glass doors set into mission brown timber frames and walls of reclaimed bricks in pinkish hue. Rosemary laid the brick paving around the house, a copy of the shell paving found in the ancient French town of Colmar, where the family had lived for a period. The kitchen was equipped with a 1960s stove as well as a cast iron wood stove reclaimed from Rosemary's sister's home in Armadale. Max and Tini Huygens, migrants from Holland, purchased the property in 1975 and named it Tilwinda from an Aboriginal word meaning 'hole in a rock'. In late 1981 Tini died after a short illness, but Max continued to live at Tilwinda until he moved to a retirement village in 2000 and the property was sold to Parks Victoria. Renamed River Bend, the property became part of the Laughing Waters Artist in Residency Program in 2008. Nillumbik Shire Council upgraded the property in 2012 with solar panels, a heat pump for hot water and double glazing to improve the comfort of the artists in residence and make the house more energy efficient. For a more in-depth description of the property and biographies of the various artists in residence commencing from 2008 to 2015, see Jane Woollard's book, "Laughing Waters Road; Art, Landscape & Memory in Eltham" published 2016.2013-09-07, activities, artists in residence, eltham district historical society, heritage excursion, jim connor collection, laughing waters road, river bend house -
Kiewa Valley Historical Society
Iron Hand Kerosene, mid to late 1900s
The 1950's saw a revolution in small appliances for use in the average household. This hand held self heating(kerosene) iron was introduced as a time saving and more convenient iron for pressing clothes and other cloth fabrics. It replaced irons needing a separate fire source to heat the ironing plate. These irons continued to be in service, even when electricity was available in cities and larger rural towns (domestic electric steam irons were invented in 1938). This item was used before and during the electricity supplies available from the Kiewa Hydro Electricity Scheme. These irons remained in use within regional rural areas that had limited or unreliable electrical reticulation.In the 1950s and later the Kiewa Valley was still a relatively isolated region which was home to rural properties and small settlements. The availability of electricity and or the financial means to afford new types of electric hand irons ensured that older and sometimes less efficient ironing remained for an extended period covering the 1960s to 1970s. Kerosene products, such as this kerosene iron was a cheaper method for farm based domestic and other rural activities requiring a heat source. The use of kerosene as a heat/light source was able to be supplied in bulk and able to be used when floods severed vital roads into this region. The supply of electricity was in summer time subject to interruption from bush fire damaged wooden poles carrying the electrical cables. Self sufficiency by rural populations was the backbone of survival and the ability to store energy sources "on the farm" was a prerequisite of isolated regions, such as the Kiewa Valley, circa 1950s.This Coleman kerosene iron has a solid steel chrome plated(press) base with a painted (blue) wooden handle. The handle is stud fastened onto an oblong shaped rolled steel handle frame and screwed (two screws) onto the base plate. Both the heating plate and the top securing plate are shaped similar to a river boat. The main housing enclosing the heating element is enamel coated(blue in colour) steel and has a half hole for lighting the kerosene at the rear end. Behind the handle and protruding upwards is a stainless steel fully enclosed container (bowl shaped) for the main supply of kerosene to the burner or generator(enclosed within the main body of the iron. The bowl has an air valve and inlet for pressurised air intake (hand pump) On the bottom rear of the fuel bowl there is a screw regulated fuel pump. The fuel heated base plate provides the heat for this advertised "self heating iron(instant lighting). See KVHS 0347B- Instruction sheet; KVHS 0347C- Wrench; and KVHS 0347D Fuel can.Stamped on the base plate of the handle, front region "COLEMAN LAMP & STOVE CO." below this "WICHITA KAN" below this"TORONTO CAN". In the middle of the handle base and in larger print "COLEMAN Instant-Lite" At the rear location in large print "MODEL 4" in smaller print below "MADE IN U.S.A." below this "PAT#1718473"household appliances, alternative non electrical ironing appliances, domestic appliances, kerosene appliances -
Kiewa Valley Historical Society
Wrench Coleman, circa 1950
The 1950's saw a revolution in small appliances for use in the average household. This hand held wrench was provided exclusively for the Coleman self heating kerosene (KVHS 0347A) iron and used for the regular changing the kerosene used in it. The iron was used before and during the electricity supplies available from the Kiewa Hydro Electricity Scheme. These irons remained in use within regional rural areas that had limited or unreliable electrical reticulation. Kerosene supplies were cheaper than electricity but also more inconvenient than electric. Electrical appliances become cheaper to buy and maintain in the later part of the 1900's and the now older kerosene iron was faded out.This wrench was required to open the fuel container which stored kerosene in the Coleman hand iron(see KVHS 0347A). This item was part of the maintenance requirement of this particular hand iron. In the 1950s and later the Kiewa Valley was still a relatively isolated region which was home to rural properties and small settlements. The availability of electricity and or the financial means to afford new types of electric hand irons ensured that older and sometimes less efficient ironing remained for an extended period covering the 1960s to 1970s. Kerosene products, such as this kerosene iron was a cheaper method for farm based domestic and other rural activities requiring a heat source. The use of kerosene as a heat/light source was able to be supplied in bulk and able to be used when floods severed vital roads into this region. The supply of electricity was in summer time subject to interruption from bush fire damaged wooden poles carrying the electrical cables. Self sufficiency by rural populations was the backbone of survival(use of this wrench was a part of rural life). The ability to store energy sources "on the farm" was a prerequisite of isolated regions, such as the Kiewa Valley, circa 1950s.This item is a flat cast iron wrench, which has been specifically made for KVHS 0347A (kerosene iron). The wrench has four specific forms cut into the steel which fit firmly around their targeted nut and other fixtures. Also see See KVHS 0347B- Instruction sheet; and KVHS 0347D Fuel can.ironing, iron maintenance tool, domestic appliances, household -
Kiewa Valley Historical Society
Can Fuel Measuring, circa 1950
The 1950's saw a revolution in small appliances for use in the average household. The hand held self heating(kerosene) iron for which this filling can was provided ,was introduced as a time saving and more convenient iron for pressing clothes and other cloth fabrics. It replaced irons needing an external fire source to heat the ironing plate. These irons continued to be in service, even when electricity was available in cities and larger rural towns. This item was used before and during the electricity supplies available from the Kiewa Hydro Electricity Scheme. These irons remained in use within regional rural areas that had limited or unreliable electrical reticulation and the ability to service them from this filling can was an essential part.n the 1950s and later the Kiewa Valley was still a relatively isolated region which was home to rural properties and small settlements. The availability of electricity and or the financial means to afford new types of electric hand irons ensured that older and sometimes less efficient ironing appliances remained for an extended period covering the 1960s to 1970s. Kerosene products, such as the kerosene self heating (KVHS 0347A) iron and this kerosene filling item, was a cheaper method for farm based domestic and other rural activities requiring a heat source. The use of kerosene as a heat/light source was able to be supplied in bulk and able to be used when floods severed vital roads into this region. The supply of electricity was in summer time subject to interruption from bush fire damaged wooden poles carrying the electrical cables. Self sufficiency by rural populations was the backbone of survival and the ability to store energy sources "on the farm" was a prerequisite of isolated regions, such as the Kiewa Valley, circa 1950s.This specially spout fitted can was provided with the Coleman self heating kerosene iron (see KVHS 0347A). On one side of the half enclosed top of the can there is a small spout(for poring the appropriate liquid into the egg shaped fount container) at the rear end of the hand iron. The can is made from tin. See KVHS 0347B- Instruction sheet; KVHS 0347C- Wrench.On one side of the can in black print on yellow background is "FUEL MEASURING CAN" underneath is "For Coleman Instant-Lite Iron" underneath are four numbered paragraphs detailing the use of this can. Below this is the name and places of manufacture. On the other side of the can is printed "BE SURE" with filling and maintenance instructionskerosene can, ironing, domestic appliances, household appliances -
Flagstaff Hill Maritime Museum and Village
Equipment - Boiler, ca 1880
This little steam boiler has been beautifully built. It could have been used to drive an engine in a small workshop, a boat or launch, or even farming equipment. It is an example of the steam technology and mechanisation of the 19th century. William Cook introduced steam heating in England in the 18th century. Steam combined with pressure was used for powering transport, such as steam engines for trains, and manufacturing, such as steam engines driving manufacturing machines. Steam boilers are still used today as an energy-efficient means of power.This steam boiler would have been suitable to drive a small engine, possibly that of a small boat. Coal was added to the firebox for fuel to heat water in the boiler. It is an example of the power used to drive machinery and equipment in the mid-to-late 19th century. Steam boilers like this one have played a part in the evolution of steam power. Steam engine boiler; vertical cylindrical coal-fired boiler with a black firebox at its base and a dome top. The cylinder's sides and top have brass fittings, inlet and outlet taps. A round opening near the base is covered by an adjustable metal plate that controls the boiler's temperature. The front door of the firebox has two hinges at the base and when the side clips are opened. A shiny brass collar tops the tall chimney. Oak wood planks around the sides of the boiler, and held in place by brass bands with nut and screw fixtures. The boiler stands on a metal and wood frame with a looped handle at the back. An inscription has been noted. Circa 1880. "1948 D/430" flagstaff hill, warrnambool, maritime museum, maritime village, great ocean road, boiler, steam engine, steam boiler, coal fired boiler, vertical boiler, boat boiler, power source, steam driven, engine boiler, steam machine, firebox, steam engine boiler -
City of Moorabbin Historical Society (Operating the Box Cottage Museum)
Functional object - Kitchen Equipment, Coolgardie Safe, c1900
The invention of the Coolgardie Safe is credited to Arthur Patrick McCormick, a contractor in Coolgardie, and later the Mayor of Narrogin. Coolgardie is in the Eastern Goldfields region of Western Australia. Gold was first discovered there in 1892; the townsite became a municipality in 1894, and by 1898 its population of 15,000 made it the third largest town in Western Australia after Perth and Fremantle. In the last decade of the 19th century, Coolgardie was the capital of the West Australian goldfields. Being 180 kilometres from the nearest civilisation, food supplies were initially scarce and expensive. As fresh food was a valuable commodity there was incentive to preserve it, and keep it out of reach of scavengers such as birds, dingos, dogs, ants, and flies. It was in an effort to do this, in the extreme heat of the Australian Interior, that McCormick came up with his design for the Coolgardie Safe. McCormick noticed that a wet bag placed over a bottle cooled its contents. He further noted that if this bottle was placed in a breeze, the bag would dry out more quickly, but the bottle would get colder. What McCormick had discovered was the principle of evaporation: ‘to change any liquid into a gaseous state requires energy. This energy is taken in the form of heat from its surroundings.’ Employing this principle, McCormick made a box for his provisions which he covered with a wet hessian bag. He then placed a tray on top, into which he poured water twice daily. He hung strips of flannel from the tray so that water would drip down onto the hessian bag, keeping it damp. As the water evaporated, the heat dissipated, keeping the food stored inside cool and fresh. The success of McCormick’s invention would not have worked without a steady supply of water. Fresh water was scarce in the eastern goldfields at this time but the demand for water from a steadily growing population encouraged innovation. The solution was to condense salt water. Heating salt water in tanks produced steam that was condensed in tall cylinders, cooled and then collected in catchment trays. By 1898 there were six companies supplying condensed water to the goldfields, the largest company producing 100,000 gallons of water a day. In the early 20th century, Coolgardie Safes were also manufactured commercially. These safes incorporated shelving and a door, had metal or wooden frames and hessian bodies. The feet of the safe were usually placed in a tray of water to keep ants away. (MAV website) The early settlers of Moorabbin Shire depended on this type of Food Safe to protect their food from flies and vermin as they established market gardens in the fertile area around the notorious Elster Creek A metal framed, 4 sided structure standing on 4 legs with 2 hinged doors on one side, a metal tray at base of food safe and a metal cover over top. Ridges on which to rest trays carrying food are inside safe. The Safe is enclosed by fly-wire mesh.'...IN.....GEELONG' A manufacturer's oval metal plate is embossed on one side of Safe but it is illegible.elster creek, moorabbin, brighton, dendy's special survey 1841, market gardens, infant mortality, disease, cemeteries, fruit, vegetables, pioneers, coolgardie safe, mccormick arthur patrick, dendy henry, vaccination, jones martha, jones ethel may -
University of Melbourne, Burnley Campus Archives
Plan - Plans and photographs, Burnley Low Energy Greenhouse, c. 2008
Laminated plans for greenhouse (1) Burnley Low Energy Greenhouse, (2) Solar Boosted Heat Pump - Greenhouse Bench Heating System. C photographs pasted on cardboard and labelled (3) Loading 20 mm gravel into Rock pile. (4) Reinforcement at Bottom Gravel level. (5) Sealing the Top of the Rock pile. (6) Top of Rock pile Before A-Frame Construction. (7) Corner Detail of Portal Frame. (8) Glazing Frames for Solar Panels. (9) Structure Partially Clad, with Solar Panel Supports at Rear. (10) Back of Solar Panels in Place. Laminated C photographs pasted on cardboard and labelled. (11) Burnley Low Energy Greenhouse. (12) Greenhouse Covering Materials Burnley. Pamphlet (13) Burnley College Institute of Land and Food Resources (slightly damaged)burnley, greenhouse, solar energy, construction, pamphlet -
University of Melbourne, Burnley Campus Archives
Plan - Colour prints, Burnley Low Energy Greenhouse, c. 2008
... Boulevard Richmond melbourne greenhouse burnley low energy ...Laminated plans for greenhouse (1) Burnley Low Energy Greenhouse, (2) Solar Boosted Heat Pump-Greenhouse Bench heating System. Photographs pasted on cardboard and labelled (3) Loading 20mm gravel into Rockpile. (4) Reinforcement at Bottom Gravel level. (5) Sealing the Top of the Rockpile. (6) Top of Rock pile Before A-Frame Construction. (7) Corner Detail of Portal Frame. (8) Glazing Frames for Solar Panels. (9) Structure Partially Clad, with Solar Panel Supports at Rear. (10) Back of Solar Panels in Place. Laminated photographs pated on cardboard and labelled. (11) Burnley Low Energy Greenhouse. (12) Greenhouse Covering Materials Burnley. Panphlet (13) Burnley College Institute of Land and Food Resources (slightly damaged)greenhouse, burnley, low energy greenhouse, solar boosted heat pump, greenhouses, bench heating system, rockpile -
Beechworth RSL Sub-Branch
Equipment - Combat Ration One Man (24 Hour), c.2006
Common every day items food used by the ADF in combat situations. This shows the combat ration one man that has been used by the ADF since the Vietnam War era. The CR1M consists of two main meals, various light snacks, sundry and beverage items. The CR1M is designed to provide the daily nutritional value to sustain a soldier over a 24 hour period. Failure to consume all food items with this period will impact upon functional energy levels due to an unbalanced nutrition intake. Excluding tea and coffee aal food items are consumable either hot or cold. It is advised to fill one cup canteen with water, immerse one 250g main meal pouch and heat for 10 - 15 minutes. For heat source use use issued hexamine stove and tablets. residual boiled water is safe and may be used for hot beverage makingCombat Ration One Man (24 hour). Sealed in a clear plastic bag with the letter 'C' printed in blue on the front (indicating that contents are menu 'C'). This pack includes small packages of supplies in various shapes and sizes, including: M and M's chocolate, potato with onion powder, sweetened condensed milk, cream spread, tea bags, safety matches and toilet paper. Front - Blue text - C / NOT FOR PRIVATE RESALE TO PUBLIC ration pack, consumables, supplies -
The Ed Muirhead Physics Museum
Coolidge X-ray Tube
The investigation of the x-ray appears early on to have been a priority research topic at the University of Melbourne’s School of Physics. This interest was sparked by the appointment in 1889 of Professor T.R. Lyle. Lyle, who was head of the school until 1915, is thought to have been the first person in Australia to have taken an x-ray photograph. A copy of this photograph can be found in the School of Physics Archive. For this particular experiment Lyle actually made his own x-ray tube. His successor, Professor Laby, continued to work with x-rays. During the 1920s Laby worked on the x-ray spectra of atoms and in 1930 he co-published with Dr. C.E. Eddy, Quantitative Analysis by X-Ray Spectroscopy. Also with Eddy, Laby produced the landmark paper Sensitivity of Atomic Analysis by X-rays. Laby went on to have an x-ray spectrograph of his own design manufactured by Adam Hilger Ltd. (see cat. No. 38). School of Physics, the University of Melbourne Cat. No. 22. Jacqueline Eager Student Projects Placement, Cultural Collections 2005 In 1913 Coolidge overcame the limitation of the narrow operating range of the gas X-ray tubes with the invention of the vacuum X-ray tube. A filament heated by an electric current directly releases electrons by thermionic emission. In thermionic emission, electrons are emitted from a metal surface directly by the application of an electric current to heat a wire filament. The electrons accelerate to the anode and produce X-rays. The anode has associated cooling fins due to the high temperatures attained by the release of kinetic energy by the electrons on colliding with the anode. Internal Glass sleeve: “A941/L2593/2821”