This is a photograph of Jack Warren, Bon Trewin, Enid Eaton, Linda Warren, Ivan Trewin and Jim Trewin. The photographer was Warren, Helena (1871-1962) who was a self-taught photographer who became both the local press correspondent and a producer of humorous trompe l'oeil postcard images. Helena Warren was a thirty-two year old settler living on a small mixed farm with her husband, William, at Newmerella, near Orbost in Gippsland, Victoria, when she bought her first camera, an Austral Box quarter-plate. Her family says she was entirely self-taught, like many women photographers who started out with nothing but the instructions on the packets of film and chemicals. In over fifty years practice she graduated from the total novice, who opened all her first mail order plates in bright sunlight and ruined them, to a competent photographer who became both the local press correspondent and an inveterate producer of humorous trompe l’oeil postcard images.This photograph has significance in its association with Helen Frances Warren, a popular Orbost identity who was well known as an accomplished photographer and needleworker.A black / white photograph of si small children sitting in a pumpkin on water. There is a Union Jack at one end and an Australian flag at the other,. On the side is "HMAS ORBOST"pumpkins-orbost warren-helena-photographer trewin-bon trewin-ivan trewin-jim warren-jack warren-linda eaton-enid

This photograph shows Cora Lynn, Enid Eaton, Jim Trewin, Jean Trewin and Ivan Trewin. The photographer was Warren, Helena (1871-1962) who was a self-taught photographer who became both the local press correspondent and a producer of humorous trompe l'oeil postcard images. Helena Warren was a thirty-two year old settler living on a small mixed farm with her husband, William, at Newmerella, near Orbost in Gippsland, Victoria, when she bought her first camera, an Austral Box quarter-plate. Her family says she was entirely self-taught, like many women photographers who started out with nothing but the instructions on the packets of film and chemicals. In over fifty years practice she graduated from the total novice, who opened all her first mail order plates in bright sunlight and ruined them, to a competent photographer who became both the local press correspondent and an inveterate producer of humorous trompe l’oeil postcard images.This photograph has significance in its association with Helen Frances Warren, a popular Orbost identity who was well known as an accomplished photographer and needleworker. This item is associated with a popular activity of the Orbost community in the first half of the 20th century. Pumpkins have been been part of the district's agricultural history since settlement.A black / white photograph of three children and two babies in a carved out pumpkin. There is a flag at each endpumpkin warren-helena trewin lynn eaton

A plastic, costume jewellery, fashion accessory for early 20th Century ladies Plastic is a material consisting of any of a wide range of synthetic or semi-synthetic organics that are malleable and can be moulded into solid objects of diverse shapes. Due to their relatively low cost, ease of manufacture, versatility, and imperviousness to water, plastics are used in an enormous and expanding range of products. They displaced many traditional materials, such as wood, stone, horn and bone, leather, paper, metal, glass, and ceramic, in most of their former uses including jewellery. Parkesine is considered the first man-made plastic. The plastic material was patented by Alexander Parkes, In Birmingham, UK in 1856.The world's first fully synthetic plastic was bakelite, invented in New York in 1907 by Leo Baekeland who coined the term 'plastics'. After World War I, improvements in chemical technology led to an explosion in new forms of plastics, with mass production beginning in the 1940s during World War 11 due to shortages of silk and ivory. A small, black plastic brooch with a verticle pin at back and diamante decoration .fashion, costume jewellery, personal effects, moorabbin, bentleigh, cheltenham, early settlers, jewellery, plastic

Amazonite is classed as a Tectosilicate and is part of the Feldspar group of minerals. Amazonite forms in a triclinic crystal structure and its chemical formula is K(AlSi3O8). In appearance, Amazonite can range from shades of green to green blue to blue, and often with white streaks or veining. The greenish colour is believed to come from the small amount of lead contained in its composition. Amazonite is named after the Amazon River due to its colour and similarities to another rock found along the riverbanks, although Amazonite is not actually found at or near the Amazon. Although less commonly used in jewellery today, Amazonite has been mined and used by humans for thousands of years and Amazonite jewellery from at least 2000BCE have been discovered in North Africa. Amazonite is found in many locations around the world including Brazil, Peru, Ethiopia, Canada, Russia, Mozambique, Myanmar, Pakistan, China, Madagascar, and the United States of America. This specimen most probably comes from the U.S.A., Amazonite is found in several US states particularly in Colorado, Virginia, Pennsylvania. This specimen is of both scientific and historic significance as a striking blue green example of Amazonite mined prior to 1868 in the United States of America, most likely from Colorado, Virginia, or Pennsylvania. These three states are all locations of significant Amazonite deposits. 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 palm-sized Feldspar mineral specimen from the Tectosilicate class in shades of blue-green with white veining.Existing label: green/blue Feldspar / "amazonite" / possibly USA geological specimen, geology, geology collection, burke museum, beechworth, tectosilicate, amazonite, feldspar, triclinic crystal structure, amazonite usa, amazonite colorado, amazonite virginia, amazonite pennsylvania

It is made up of andalusite. Andalusite is a rock-forming mineral, sometimes found in granite or schist. It is often used to make glass, ceramic products, chemicals, and heat-resistant bricks as it can withstand high temperatures without changing. The chiastolite contains particles of graphite, which arranges in geometric patterns. When crystal growth occurs in the rock, the granite particles concentrate at crystal interfaces and can result in cross shapes. These ‘cross stones’ have been valued and used for their spiritual or religious meaning and used as charms, gems, or amulets. Chiastolite was first discovered in 1754, seen in a description in a published book by a palaeontologist, Franciscan priest, and Spanish author, Jose Torrubia. Deposits have been found in Australia, France, the USA, Chile, Canada, Spain, Brazil, Sri Lanka, and Russia. Deposits have been found in Western Australia and South Australia. This particular specimen was found in Bimbowrie, South Australia. Other chiastolite specimens have been found in Bimbowrie, along with jasper, quartz, and aventurine in the form of rolled pebbles or schist. This chiastolite specimen is socially and historically significant. It is a very rare sort of andalusite mineral. It is from one of only two locations where it is regularly found in Australia. The carbon cross has made it an important religious symbol in the past. Its ability to withstand high temperatures has made it a common ingredient in heat-resistant bricks and ceramics today. 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 metamorphic mineral consisting of andalusite, with a cross shaped graphite pattern in colours of grey, brown and yellowburke museum, beechworth, geological, geological specimen, andalusite, chiastolite, geometric, cross stone, spiritual, religious, australia, south australia, bimbowrie, quartz, jasper, aventurine, schist

This is a photograph of the twin daughters of Mrs Trixie Mason - Marion and May,. They had a brother Alec Mason. The Mason Twins are the granddaughters of George and Agnes Thomas from Newmerella . The photographer was Warren, Helena (1871-1962) who was a self-taught photographer who became both the local press correspondent and a producer of humorous trompe l'oeil postcard images. Helena Warren was a thirty-two year old settler living on a small mixed farm with her husband, William, at Newmerella, near Orbost in Gippsland, Victoria, when she bought her first camera, an Austral Box quarter-plate. Her family says she was entirely self-taught, like many women photographers who started out with nothing but the instructions on the packets of film and chemicals. In over fifty years practice she graduated from the total novice, who opened all her first mail order plates in bright sunlight and ruined them, to a competent photographer who became both the local press correspondent and an inveterate producer of humorous trompe l’oeil postcard images.This photograph has significance in its association with Helen Frances Warren, a popular Orbost identity who was well known as an accomplished photographer and needleworker.A black / white photograph of two small twin Aboriginal girls in a large pumpkin floating on water. There is a Union Jack at each end with "HMAS CENTENARY 1934" on the side.pumpkins-orbost warren-helena-photographer mason-marion mason-may aboriginal-children

http://en.wikipedia.org/wiki/File:Tilley-storm-lantern-X246-May- Tilley storm lantern, this model has been in production since 1964 The Tilley Lamp derives from John Tilley’s invention of the hydro-pneumatic blowpipe in 1813 in England. http://en.wikipedia.org/wiki/Kerosene_lamp#Pressure_lamp Pressure lamps are far more sophisticated than wick lamps and produce a much brighter light, although they can be quite complicated and fiddly to use. This type of lamp is commonly known in the UK as a "Tilley lamp", after a manufacturer of the same name, and in North America as a "Coleman lantern" for similar reasons. A kerosene blowtorch displaying the various aspects of the kerosene burnerA pressure lamp has a fuel tank at the bottom with a small pump to pressurise the kerosene. There is a narrow gap up to the top of the lamp, called a flue, and at the top of the lamp there is a burner (gas outlet). Directly underneath the burner is the mantle, a fabric bag coated with chemicals that incandesce when heated by the gas flame. The burner lamp is known for its brightness. It is so bright because of the amount of pressure that is placed onto the wick. This pressure allows a steady flow of the gasoline and a constant light Tilley Storm Pressure Lantern, model no x246 has a stainless steel base which is filled with kerosene, with a pump used to pressurize the kerosene vapor. Under the base is a sticker.On top is a black hood with vents which sits on the glass heat resistant shade. The glass shade has an etched label. It has a white and pink mantle on the central rod with a long shaped stainless steel handle, this folds down when not in use.Base - Sticker Tilley Lamp Model X246 Etched on glass shade Tilley, Durosil, ITI, Heat Resistant. Made in Englandlantern tilley pump pressure mantle kerosene methylated spirits stainless steel lamp kerosene lamp round glass cylinder

Many farmers on the flats at Orbost used to grow a lot of maize and harvest the maize by putting the pigs in to eat the maize.. Maize and pumpkins fed in conjunction were largely used for fattening pigs. The photographer was Warren, Helena (1871-1962) who was a self-taught photographer who became both the local press correspondent and a producer of humorous trompe l'oeil postcard images. Helena Warren was a thirty-two year old settler living on a small mixed farm with her husband, William, at Newmerella, near Orbost in Gippsland, Victoria, when she bought her first camera, an Austral Box quarter-plate. Her family says she was entirely self-taught, like many women photographers who started out with nothing but the instructions on the packets of film and chemicals. In over fifty years practice she graduated from the total novice, who opened all her first mail order plates in bright sunlight and ruined them, to a competent photographer who became both the local press correspondent and an inveterate producer of humorous trompe l’oeil postcard images.This item is a pictorial record of farming in Orbost in the early 20th century. It is also associated with Helena Warren. a well-known photographer born in Orbost.a black / white photographagriculture farming-orbost pumpkins maize pigs warren-helena

Digital PDF Filenon-fictionIn January 2008 Akzo Nobel chief Hans Wijers triumphantly signed the US$19.2 billion deal (€11.6 billion) that would seal the end of the 81-year-old Imperial Chemical Industries (ICI). Sixteen years later, ICI’s one-time subsidiary Orica marches on, transforming itself again from its explosives base to a global mining services giant employing 12,500 people, serving customers in over a hundred countries, with more than 62 per cent of sales outside Australia and Asia. Explosives remain the company’s core, accounting for more than 75 per cent of revenues, with copper and gold making up 45 per cent of output. Not bad for a company governed by a strict covenant, with its parent detailing what products could be sold into what market. The covenant laid down what products could be imported and exported and what investments could be made, although Philip Weickhardt, the last ICI Australia chief executive, admitted he had never seen a copy of the document. It was the preserve of the company’s lawyers, and something referred to in passing. In any case, in 1997 when he took over, Weickhardt’s task as to lead the company to independence after 123 years of foreign rule. Negotiations, he said, were very pragmatic because Australia wanted to be on its own and ICI wanted to get out. The covenant was no longer something even the lawyers needed to know about. ICI ultimately failed because of a corporate model that tried to serve too many different products and markets. Orica has stuck to its core, while over the years learning and benefiting from the strengths of its former parentorica, deer park, ici

(Sir) David Orme Masson was Professor of Chemistry at the University of Melbourne from 1886 to1923. As well as being a distinguished teacher and researcher, he contributed significantly to Australian scientific and public life, being instrumental in the establishment and governance of many important bodies including the CSIRO. Masson supported Antarctic research for 25 years, beginning with Douglas Mawson's expedition of 1911. Born in England and receiving an MA, BSc and DSc from the University of Edinburgh, he was a gifted, elegant and disciplined lecturer and a researcher of substance. His research work included the theory of solutions, from which emerged the term 'critical solution temperature'; the periodic classification of the elements; and the velocity of migration of ions in solutions. Much of his research was done in collaboration with talented students such as David Rivett and his own son Irvine Masson. Masson was knighted in 1923. He is commemorated by the Masson Theatre and Masson Road at the University of Melbourne; a mountain range and island in Antarctica; a portrait painting by William McInnes in the foyer of the School of Chemistry; the Masson lectureship from the Australian National Research Council; and the Masson memorial scholarship from the Royal Australian Chemical Institute.Set of rare gases in a box coming from Irvine Masson to his father.

(Sir) David Orme Masson was Professor of Chemistry at the University of Melbourne from 1886 to1923. As well as being a distinguished teacher and researcher, he contributed significantly to Australian scientific and public life, being instrumental in the establishment and governance of many important bodies including the CSIRO. Masson supported Antarctic research for 25 years, beginning with Douglas Mawson?s expedition of 1911. Born in England and receiving an MA, BSc and DSc from the University of Edinburgh, he was a gifted, elegant and disciplined lecturer and a researcher of substance. His research work included the theory of solutions, from which emerged the term ?critical solution temperature?; the periodic classification of the elements; and the velocity of migration of ions in solutions. Much of his research was done in collaboration with talented students such as David Rivett and his own son Irvine Masson. Masson was knighted in 1923. He is commemorated by the Masson Theatre and Masson Road at the University of Melbourne; a mountain range and island in Antarctica; a portrait painting by William McInnes in the foyer of the School of Chemistry; the Masson lectureship from the Australian National Research Council; and the Masson memorial scholarship from the Royal Australian Chemical Institute.8 samples in bottles of the type used in Masson's work on methyl,etc,sulphides, See152

various 1905 (Jul to Dec) company letterhead receipts from Melbourne companies, which J.H. Abbott used to access supplies of gelignite and fuses 2403.90 (A to GI Abbott Collection: Jul to Dec 1905: records and receipts for purchases of gelignite and fuses by J.H. Abbott & Co. from a wide range of generally Melbourne based companies 2403.90A: 6 invoices from Briscoe & Company & Limited, Wholesale Ironmonger & Hardware Merchants, Melbourne 2403.90B: 13 invoices from Perks Bros. & Co., Indentors & Importers, 31 Queen St Melbourne 2403.90C:6 invoices from Morris & Meeks, Melbourne 2403.90D: 27 invoices and credit notes from Richard Linton, Queen's Bridge, Melbourne 2403.90E: 24 invoices from Gibbs, Bright & Co. Melbourne 2403.90F: 19 invoices from The Australian Explosives & Chemicals Compy. Ltd., 138 Queen Str, Melbourne 2403.90G: 6 invoices from Bickford, Smith & Co., 99 Queen Str, Melbourne 2403.90H: 23 invoices from Dalgety and Company Limited, 461-471 Bourke Str, Melbourne 2403.90I: 30 invoices from McMicking & Co., 381 Little Collins Str, Melbournetrade company 1905, gelignite oproviders

Extraordinary business 24th March 1981 Report of the City Engineer & Planner Planning Permit Application Thirty-Three Elderly Persons Flats & Community Building Showers Street Braybrook Planning Permit Application St. Johns College Churchill Avenue Braybrook Planning Permit Application Illuminated Sign 115 Durham Road Sunshine Planning Permit Application Two Signs 22 St. Albans Road Sunshine North Planning Permit Application Seed Storage Building 425 Somerville Road Footscray West Planning Permit Application Monsanto Chemical Works Somerville Road Footscray West Planning Permit Application Alterations to Existing Tyre Bay Target Highpoint West Rosamond Road Maribyrnong Report of the Building Surveyor Staffshowers street, st. johns college, braybrook, durham road, sunshine, st. albans road, sunshine north, monsanto, somerville road, footscray west, target, highpoint west, rosamond road, maribyrnong

Born in Ireland, John Drummond Kirkland trained as a chemical analyst through apprenticeship in a medical laboratory in Dublin, before migrating to Australia in 1852 and moving to Melbourne in 1855. While still an undergraduate medical student at the University of Melbourne, he was appointed lecturer in chemistry following the sudden death of John Macadam in 1865. Due to the enthusiastic support of his fellow students this temporary role became a permanent appointment the following year. Kirkland continued his studies, graduating in medicine in 1873 and surgery in 1880. His son, John Booth Kirkland, was appointed as his assistant in 1878, later leading to accusations of nepotism. In 1882 John Drummond Kirkland became the University?s first professor of chemistry and metallurgy, continuing until his death in 1885. Today?s researchers use a high performance computing facility named ?Kirkland? after the first Professor of Chemistry at the University of Melbourne. Chemistry was still controlled by the medical school during Kirkland?s career, but became part of the science degree from 1886, along with the appointment of David Orme Masson as professor. Kirkland struggled for University funding to buy new apparatus. To compensate, he bought much from his own personal funds, including analytical chemistry equipment. Chemistry was first taught at Melbourne in the medical school, located in the area now occupied by Physics and the Ian Potter Museum of Art. (Sir) David Orme Masson was Professor of Chemistry at the University of Melbourne from 1886 to1923. As well as being a distinguished teacher and researcher, he contributed significantly to Australian scientific and public life, being instrumental in the establishment and governance of many important bodies including the CSIRO. Masson supported Antarctic research for 25 years, beginning with Douglas Mawson?s expedition of 1911. Born in England and receiving an MA, BSc and DSc from the University of Edinburgh, he was a gifted, elegant and disciplined lecturer and a researcher of substance. His research work included the theory of solutions, from which emerged the term ?critical solution temperature?; the periodic classification of the elements; and the velocity of migration of ions in solutions. Much of his research was done in collaboration with talented students such as David Rivett and his own son Irvine Masson. Masson was knighted in 1923. He is commemorated by the Masson Theatre and Masson Road at the University of Melbourne; a mountain range and island in Antarctica; a portrait painting by William McInnes in the foyer of the School of Chemistry; the Masson lectureship from the Australian National Research Council; and the Masson memorial scholarship from the Royal Australian Chemical Institute.Stocks used in the Blackie - Masson - J.B.Kirkland work.

Large dark wooden one fits the dish ordered by D.O.Masson shortly after arrival in Melbourne. (Sir) David Orme Masson was Professor of Chemistry at the University of Melbourne from 1886 to1923. As well as being a distinguished teacher and researcher, he contributed significantly to Australian scientific and public life, being instrumental in the establishment and governance of many important bodies including the CSIRO. Masson supported Antarctic research for 25 years, beginning with Douglas Mawson?s expedition of 1911. Born in England and receiving an MA, BSc and DSc from the University of Edinburgh, he was a gifted, elegant and disciplined lecturer and a researcher of substance. His research work included the theory of solutions, from which emerged the term ?critical solution temperature?; the periodic classification of the elements; and the velocity of migration of ions in solutions. Much of his research was done in collaboration with talented students such as David Rivett and his own son Irvine Masson. Masson was knighted in 1923. He is commemorated by the Masson Theatre and Masson Road at the University of Melbourne; a mountain range and island in Antarctica; a portrait painting by William McInnes in the foyer of the School of Chemistry; the Masson lectureship from the Australian National Research Council; and the Masson memorial scholarship from the Royal Australian Chemical Institute.Wooden containers (formers)

These mid-1960s Peacock and Gold brand lighter fuel hand warmers were used in Falls Creek to keep out the cold. The concept behind the hand warmer is that through combustion (ignition) of lighter fluid (light petrol distillate) it becomes a catalytic heater, relying on a catalysed chemical reaction to break down molecules and create heat. The devices could get quite hot, not hot enough to set paper on fire, but hot enough to give a nasty burn if sustained contact against your skin occurred. The construction of the device is very simple. There is very fine rolled wire mesh which fits on top of the reservoir body. After you fill the reservoir with lighter fluid, vapor pressure builds up. The device ignites by heating the grill with a match or lighter until it glows red. There is no open flame. The hand warmer also had a velvet bag to place it in after igniting to prevent direct skin contact. They were able to generate heat for up to a whole day. The Japanese company Yamato Shokai Ltd was founded in 1923 in the city of Osaka. Destroyed during air raids in 1945, the factory was rebuilt in 1946. They manufactured the Peacock brand pocket-warmer and sold it internationally.These items are significant because they were commonly used at Falls Creek.The pocket warmer is a small, relatively flat device with a tank at the bottom and a burner mechanism a t the top. "PEACOCK/MADE IN JAPAN" is engraved near the burner. The warmer fits into a metal case which features a series of ventilation holes in the shape of a peacock's tail. JAPANESE PAT. 237413.483177 MADE IN JAPANhand warmers, ski equipment 1960s

Otto Schott, a chemist and glass engineer, had the vision of uniform production ie making glass items that would resemble one another. At the end of the eighteenth century, with most glass items still created by hand, the quality of output was still a guessing game. Schott was the first to render this an industrial certainty. 1884 Otto Schott, Ernst Abbe and Carl and Roderich Zeiss found the Schott & Associates Glass Technology Laboratory in Jena, Germany. Glastechnisches Laboratorium Schott & Gen was born. Production started in 1886. Original products included optical and thermometer glasses. The following year, a crucial discovery was made: borosilicate, a heat and chemically resistant glass. By it’s 25th year anniversary, the company had grown from an experimental glass factory into an internationally renowned manufacturer of optical and industrial glasses. Soon to be added was fiolax, tube-shaped glass used for vials, ampoules and syringes thus allowing the company to play a significant role in supplying Europe's nascent pharmaceutical industry. Post WW2 USA Army opens new factory in Mainz, West Germany and factory in Jena , East Germany taken over by the DDR State both using same trade name. Legal action for 30 years resolved in 1980 - split name. Berlin Wall 1989, Factories reunited 1991A pharmaceutical clear glass beaker with graduation 100ml -300ml DURAN 50Front : DURAN 50 / SCHOTT & GEN / MAINZ / JENA (ER) GLAS 300 Back : PYREX 300pharmacy, medications, medicines, glass manufacturing, glass works, early settlers, moorabbin, bentleigh, cheltenham, jenaer glaswerk schott & gen company, west germany, east germany, berlin wall, ww2 1939-45, schott otto, zeiss roderich

The Albion Explosives Factory was a major WWII-era munitions site in Sunshine, Victoria, operating from 1939 to 1986. Its legacy includes the Black Powder Mill, now a heritage landmark. War Time History - Established in 1939–40 in response to the looming threat of war in Europe. - Located in North Albion, opposite the ICIANZ chemical plant, which also helped design and operate the facility. - Initially known as Munitions Annexe No. 5, it became the Albion Explosives Factory, producing cordite, TNT, nitroglycerine, nitric acid, and other propellants for small arms and artillery. - By 1942–45, it was one of Australia’s three primary military explosives factories, employing thousands and contributing significantly to the war effort. Post War Time History - Continued production of explosives and fertilizers for commercial use after WWII. - Expanded in 1947–49 with the addition of the RDX plant north of Furlong Road. - Introduced new technologies like synthetic ammonia, DNT, and continuous TNT production through the 1950s–60s. Closure and Environmental Remediation - Closed in 1986, followed by extensive decontamination and cleanup. - The site was heavily contaminated with TNT, DNT, nitrates, ammonia, and metals, requiring years of environmental audits and remediation. - Eventually redeveloped into a housing estate and shopping complex, transforming the industrial site into a suburban community. A Blast from the Past Albion Explosive Factoryalbion explosive factory, deer park, cairnlea

The Albion Explosives Factory was a major WWII-era munitions site in Sunshine, Victoria, operating from 1939 to 1986. Its legacy includes the Black Powder Mill, now a heritage landmark. War Time History - Established in 1939–40 in response to the looming threat of war in Europe. - Located in North Albion, opposite the ICIANZ chemical plant, which also helped design and operate the facility. - Initially known as Munitions Annexe No. 5, it became the Albion Explosives Factory, producing cordite, TNT, nitroglycerine, nitric acid, and other propellants for small arms and artillery. - By 1942–45, it was one of Australia’s three primary military explosives factories, employing thousands and contributing significantly to the war effort. Post War Time History - Continued production of explosives and fertilizers for commercial use after WWII. - Expanded in 1947–49 with the addition of the RDX plant north of Furlong Road. - Introduced new technologies like synthetic ammonia, DNT, and continuous TNT production through the 1950s–60s. Closure and Environmental Remediation - Closed in 1986, followed by extensive decontamination and cleanup. - The site was heavily contaminated with TNT, DNT, nitrates, ammonia, and metals, requiring years of environmental audits and remediation. - Eventually redeveloped into a housing estate and shopping complex, transforming the industrial site into a suburban community. A Blast from the Past Albion Explosive Factoryalbion explosive factory, deer park, cairnlea

The Albion Explosives Factory was a major WWII-era munitions site in Sunshine, Victoria, operating from 1939 to 1986. Its legacy includes the Black Powder Mill, now a heritage landmark. War Time History - Established in 1939–40 in response to the looming threat of war in Europe. - Located in North Albion, opposite the ICIANZ chemical plant, which also helped design and operate the facility. - Initially known as Munitions Annexe No. 5, it became the Albion Explosives Factory, producing cordite, TNT, nitroglycerine, nitric acid, and other propellants for small arms and artillery. - By 1942–45, it was one of Australia’s three primary military explosives factories, employing thousands and contributing significantly to the war effort. Post War Time History - Continued production of explosives and fertilizers for commercial use after WWII. - Expanded in 1947–49 with the addition of the RDX plant north of Furlong Road. - Introduced new technologies like synthetic ammonia, DNT, and continuous TNT production through the 1950s–60s. Closure and Environmental Remediation - Closed in 1986, followed by extensive decontamination and cleanup. - The site was heavily contaminated with TNT, DNT, nitrates, ammonia, and metals, requiring years of environmental audits and remediation. - Eventually redeveloped into a housing estate and shopping complex, transforming the industrial site into a suburban community. A Blast from the Past Albion Explosive Factoryalbion explosive factory, deer park, cairnlea

August Vogeler was born in Minden, Germany in 1819, and emigrated to the United States to Baltimore when 20 years old and entered the employ of the wholesale drug firm Smith & Atkinson. Five years later he established the firm of A. Vogeler & Company manufacturing drugs and chemicals and eventually built up a drug business and manufactured products such as St. Jacob’s Oil, Dr. August Koenig’s Hamburg Drops, Koenig’s Hamburg Breast Tea, Diamond Vera-Cura and Dr. Bull’s Family Medicines. Vogeler & Company was located for a long period of time at Liberty and German Streets in Baltimore City and had an impressive multi-block operation. Charles A. Vogeler, August’s son, grew the business and was one of the pioneers of progressive patent medicine advertising and employed many novel schemes. Another son, Jerome Vogeler was also engaged in the drug business. Previously, in 1873, August Vogeler acquired the medicinal compounds of Reverend Dr. Bull (not the Dr. Bull in Louisville). Eventually in 1877, with the help of his partner, Adolph Meyer, the company promoted and sold Dr. Bull’s Family Medicines until shortly after the death of Charles Vogeler in 1882. In 1883, A. C. Meyer purchased all interests of his Vogeler partners and remained in business until his death 0n 4 February 1914. Slender, round, aqua tinted clear glass with three lines of text embossed on half side of bottle, initial on base.On side 'ST JAKOBS OEL', A VOGELER & CO', BALTIMORE MD'. On base 'C'.liniment

An original Kerr-Grant Microbalance, modified by E.J.Hartung This balance was invented in the chemistry department by Bertram Dillon Steele, later first Professor of Chemistry at the University of Queensland 1910-1930, in collaboration with Professor Kerr Grant, Physics. The design was widely used by other chemists, including Masson's mentor, Professor Ramsay, working in London on newly discovered rare gases (especially Radon), and Professor Hartung in Melbourne, investigating the chemistry of the decomposition of silver salts in photographic processes. The principle of the microbalance was to measure the change in density of a gas by the shift in the balancing beam due to a change in pressure of the gas in the balance case. The quartz balancing beam was made by Bertram Steele who was particularly skilled in glassblowing. A quartz beam is the beam of the Aston microbalance based on the Steele/Grant instrument, and described by F.W. Aston, the inventor of the mass spectrometer. The bulb at one end of the beam contained a fixed amount of air, so that a change in the pressure of gas in the balance case changed the buoyancy of the beam, yielding a displacement in the beam which could be measured. By this means, differences in weight of about 10 nanogram could be measured, in amounts of up to 0.1 gram. Such differences are significant the increase in weight of a metal sample due to surface oxidation (Steele's interest) in the weight loss due to radioactive decay of Radium (Ramsay's work), and in the estimates of density change due to the isotopic distribution of Neon (Aston). Ernst Johannes Hartung was a chemist and astronomer. Educated at the University of Melbourne (BSc 1913, DSc 1919), he became lecturer in 1919, associate professor in 1924, and succeeded Rivett as chair of chemistry in 1928, remaining in this position until 1953. Hartung?s lecturing style surged with enthusiasm and he employed the use of screen projections to demonstrate chemical phenomena to large undergraduate classes. In 1935 he recorded Brownian movement in colloidal solutions on 35 mm cinefilm, which was later copied onto 16 mm film for the Eastman Kodak Co. World Science Library. This can be viewed in the Chemistry laboratory. He researched the photo decomposition of silver halides, and was awarded the David Syme Prize in 1926. He devoted time to the design and construction of a large, new chemistry building for the School of Chemistry (built 1938?1939). During World War II he was approached by Professor Thomas Laby, chairman of the Optical Munitions Panel, to chair the advisory committee on optical materials, to produce high quality optical glass in Australia. This was successful, with large-scale production achieved within ten months at a reasonable cost. Hartung served three terms as general President of the (Royal) Australian Chemical Institute, was an ex-officio councillor of the Council for Scientific and Industrial Research, and a Trustee of the Museum of Applied Science (now part of Museum Victoria).An original Kerr-Grant Microbalance, modified by E.J. Hartung.

A Storm Glass and Thermometer such as this one would be used in predicting or forecasting the weather. Farmers used predictions they read from their Storm Glass to prepare for stormy weather or for choosing a good time for planting or harvesting their crops. This could mean to them the difference between a good year and a year without income. This design has been in use since the early 1800’s. According to Admiral Fitzroy (who studied the storm glass and wrote instructions on its use) the liquid in the glass changes composition and appearance according to the direction of the air moving around it. He advised the user to disturb the contents once or twice a year by tipping it upside down and shaking it gently. Item is a good example of a barometer/thermometer that would have been in most homes and farms from the late 19th century and early 20th century. This item would have been massed produced at the time therefore easily available and quite cheap to purchase making this particular item not very significant as not associated with a historic person or property or with a known manufacturer or date.Storm Glass and Thermometer, commonly called a 'Cottage Barometer', mounted on a rectangular dark rectangle of wood, top corners rounded. The Storm Glass (or weather glass, or chemical weather glass) is suspended in a long oval shaped hole in the wood on left side, held in place at top and at bottom with 2 metal bands secured by nails. The glass of this gauge is hand blown, sealed at the top with another layer of glass. The watery fluid in the storm glass is opaque brownish colour with dark particles floating in it. (Storm glasses were usually filled with a variation of a mix of camphor, distilled water, ethyl alcohol and silver nitrate.) The alcohol thermometer is mounted on the right side of the wood, bulb resting in a hollow, attached at top and near base by 2 thin metal strips, with clover-leaf shaped ends, nailed into place. Over the bulb is nailed a metal guard with 3 ventilation slits cut into it. On left of thermometer is a scale, stamped into wood, 30 below zero to 130 above zero, in 2 degree intervals. A border of 2 thin parallel lines, with remnants of light coloured paint, is around the block of wood. On the reverse side, a metal plate is nailed to the top with a mounting hole in it. Impressed sideways along edge of barometer is "STORMY" "CHANGE" "FAIR". Across the top of the thermometer is a fleur de leis in the wood, and above this it is stamped "FAHRENHEIT". On right of the thermometer, stamped into the wood, is "BLOOD/HEAT", "SUMR/HEAT", "TEMPE/RATE", "FREEZ/ING". On the back of the wood, at the base, are remnants of a white sticker with "...111.73". Carved into the wood is "HOLLAND / AV". flagstaff hill, warrnambool, shipwrecked coast, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, barometer, cottage barometer, storm glass, thermometer, chemical weather glass

Requesting reprints of articles published overseas is a common medical practice, as can be seen by the templates used in this collection. See 2024.40.6 for a copy of the article that is being requested on these notices. Dr Margaret Alison Mackie (1910-1991) was in active practice between 1936 and 1970. She was a Fellow of the College, and was appointed a Commander of the Order of St Michael and St George (CMG) for services to medicine in 1975. Collection of ten notices (a-j) received by Dr Margaret Alison Mackie via mail from the United States, Germany, Hungary, and Israel requesting a copy of her published article 'Treatment of Toxaemia of Pregnancy.' Notes are either printed on cardboard or on paper. Requests are from the following: a. Paul Rabinowitz, MD, Jewish Hospital of Brooklyn, NY, United States, June 1961 b. Dr. Joachim Reich, Kinderklick der Karl Marx Universitat, Leipzig, Germany, August 1 1961 c. Dr. Judith Erneszt, Budapest, Hungary d. Dr. Reinhold Schwarz, Universitats Frauenklinik, Rostock, Germany e. Dr W. Selby, Beershiba, Israel f. Dr. Albert Altchek, Mount Sinai Hospital, NY, United States, May 29 1961 g. Dr. Horst Echtermeyer, Frauenklinik der. Med. Academie, Magdeburg, Germany, July 25 1961 h. Dr. H. Spitzbart, Universitats Frauenklinik, Leipzig, Germany, July 26 1961 i. Dr. G. Fekete, Scientific Department, Chemical Works of Gedeon Richter, Budapest, Hungary, July 29 1961 j. Dr. Max v. Clarmann, Munich, Germany, 20 June 1961 obstetrics

32 invoices from Jan to Dec 1918, from a range of businesses; addressed to J.H. Abbott & Co. Abbott Collection: 32 invoices from Jan to Dec 1918, from a range of businesses; addressed to J.H. Abbott & Co. J.H. Abbott & Co. Bendigo invoice The State Assurance Co Ltd (of Liverpool) - 2 renewal receipts The British imperial Oil Co. Ltd. - 2 invoices & receipts The Lion Rolling Mills - 4 invoices & receipts McPhersons Pty. Ltd. - 2 invoices & receipts Miller & Co. Pty. Ltd. - 2 invoices & receipts George Russell, 454-460 Flinders Str Melbourne. - 3 invoices & receipts Ullathorne Hartridge Co. Ltd. invoice The Dunlop Rubber Co. of AUS. Ltd. - 3 invoices & receipts The Dalgety Company Limited - 2 receipted invoices Guthridge & Co. invoice The Royal Agricultural Society of Victoria correspondence Eliza Tinsley, steel merchants Melbourne - invoice The Australian Explosives and Chemical Company Limited invoice & receipt The Gair Manufacturing Co. - 2 invoices & receipt C. S. Green & Son, 368-370 Post Office Place, Melbourne, hardware merchants' invoice Barnet Glass Rubber Co. Ltd. - receipted invoice C. Harper, saddle & harness Manufacturer & Importer, Bath Corner, Charing Cross, Bendigo - invoiceabbott, invoices

T & C Clark & Company Limited, based at Shakespeare Foundry, was founded in 1795 by Thomas and Charles Clark and grew to be one of the largest iron foundries in Wolverhampton. The firm was the pioneers of Enamelled Cast ironware and the founder Charles Clerk went on to became mayor of Wolverhampton in 1860 after also serving as a Councilor, Alderman, and later Chief Magistrate. The company exhibited many products at the International Exhibition of 1862 at South Kensington, alongside the gardens of the Royal Horticultural Society. The company was also awarded the silver medal for its products at the International Paris Exhibition in 1878. The company's product range included thousands of items, both domestic and industrial. T & C Clark pioneered the use of enamelled cast ironware, after taking out a patent in 1839 guaranteed to be free of lead or arsenic. In the late 1940s and 1950s the company produced acid-resisting enamelled cast iron boiling pans; steam-jacketed pans; stills; square and rectangular tanks; open and closed mixing vessels; flanged pipes; bends and tees; laboratory equipment; small scale plant; evaporating bowls; beakers; sulphonates; and glass-lined mild steel tanks for beer, mineral water, and food. The company is listed as enamelled chemical plant manufacturers in Kelly's 1962 Wolverhampton Directory, but within a few years, the company had ceased trading.The item is significant as it was used as a domestic kitchen or camp fire item used to cook food safely without the concern that the metal may contain lead or arsenic as earlier cooking utensils had. T C Clark innervates the first manufacturing process of cast iron cook ware to have enamel lining in his products to alleviate the possibility of lead or arsenic contamination of food.Oval cast iron boiler or cooking pot, with lid, pot is oval shaped lid is dented and handle buckled.Inscription on base "Clark & Co Patent", "Best Quality", "9 Gallons" and a Trade Mark of a "C" inside two triangles to side of potflagstaff hill, warrnambool, shipwrecked coast, flagstaff hill maritime museum, flagstaff hill maritime village, great ocean road, cooking pot, stew pot, food, kitchen utensil, shakespeare foundry, tc clark

The history of metal packaging began in Bohemia in the 1200s. Metal has been produced for a very long time. But the first metal used for packaging was tin. In particular, it was the process of tin plating that was invented in Bohemia. Before this no other metal was economically able to be used for packaging. Later, in 1667 Andrew Yarranton, and English engineer, and Ambrose Crowley brought the method to England. Here it was improved by ironmasters including Philip Foley. Then by 1697, John Hanbury had a rolling mill at Pontypool in South Wales. The method they developed involved rolling iron plates using cylinders. This process enabled more uniform blank plates to be produced than was possible by just hammering the tin. https://www.shilohplastics.com.au/history-of-metal-packaging/ Fuller's Earth is any clay material that has the capability to bleach or dissolve oil or other liquids without the use of harsh chemical treatment. Modern uses of Fuller's Earth include as absorbents for oil, grease, and animal waste (cat litter) and as a carrier for pesticides and fertilisers. Minor uses include filtering, clarifying, and decolorising; active and inactive ingredient in beauty products; and as a filler in paint, plaster, adhesives, and pharmaceuticals. Fulling is an important step in the production of woollen garments, and can be traced back to ancient times. Cuneiform texts from Mesopotamia mention a raw material, which was delivered to fullers for the finishing of cloth. https://en.wikipedia.org/wiki/Fuller%27s_earth The use of tin to protect and store items, revolutionised the world. Fuller's Earth is a widely used product.Container of cylindrical sheet metal with perforated lid, used by Duerdin and Sainsbury Ltd, Sellers of Franbert's Fuller's Earth. Colour printed paper deteriorating. ‘Nett Contents 3½ oz.’ Ingredients still inside.Tin very rusty.'Franbert's Fuller's Earth. For the Toilet and Nursery. Protects the skin & Improves the Complexion. Nett Contents 3½ oz.'flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, tin, tin plating, containers

Sphalerite or sphaelerite is named from the Greek word for 'treacherous' or 'deceiver' as specimens can vary widely in appearance, making them hard to visually identify. It is a zinc sulfide with the chemical composition (Zn,Fe)S, the most important ore of zinc. Specimens of sphalerite can contain iron as a substitute for up to 25% of the usual zinc present, as well as trace elements of gallium, cadmium, geranium and indium. Small amounts of arsenic and manganese may also be detected. Sphalerite is found in igneous, sedimentary and metamorphic rocks. It forms when carbonate rock encounters acidic, zinc-bearing fluid. It often forms in veins or in fissures of the existing rock, with colours and crystal shapes dependent on the composition of the the combining elements. It forms isometric crystal shapes including cubes, tetrahedrons, octahedrons, dodecahedrons. This specimen was collected in approximately 1852, in Broken Hill, NSW, as an adjunct to the Geological Survey of Victoria. It was donated to the Museum in 1868. Victoria and other regions of Australia were surveyed for sites of potential mineral wealth throughout the 19th Century. The identification of sites containing valuable commodities such as gold, iron ore and gemstones in a locality had the potential to shape the development and history of communities and industries in the area. The discovery of gold in Victoria, for instance, had a significant influence on the development of the area now known as 'the goldfields', including Beechworth; the city of Melbourne and Victoria as a whole.The specimen is significant as an examples of surveying activity undertaken to assess and direct the development of the mineral resource industries in Victoria and Australia, as well as the movement to expand human knowledge of earth sciences such as mineralogy and geology in the nineteenth century.A pipe-shaped specimen of sulfide-mineral zinc ore displaying patches of black, brown, beige and gold colouring. The main item has associated broken pieces. geological specimen, geology, geology collection, burke museum, beechworth, mineralogy, indigo shire, geological survey, sphalerite, sphaelerite, zinc ore, broken hill, nsw, victoria, galena, fluorite, chalcopyrite, lead, cadmium, gallium, germanium, indium, iron

This specimen was recovered from Mica Schist, Canada. Chalcopyrite is a copper iron sulfide mineral with a chemical composition of CuFeS2. Its name derives from the Greek words for copper (chalco-) and brass (pyrite). It can be found in shades of yellow, green and grey, and, when exposed to acid, it can change to purple, blue, violet and yellow tones. Weathering can cause loss of its metallic luster and its brass-yellow colour. Chalcopyrite forms under various conditions, with the most significant deposits being hydrothermal in their origin. It is known globally as the most important ore of copper for thousands of years, and is thus considered a very important mineral formation. Given its golden appearance, it is often confused for the mineral gold, earning it the popular reputation as 'fool's gold' or 'yellow copper'. However, it can be straightforwardly distinguished from gold; the latter is soft, with higher specific gravity and a yellow streak, whereas chalcopyrite is brittle, easily scratched by a nail, and has a greenish grey streak. Copper was the first metal that was used by people. It was discovered by the Neolithic man about 9,000 years ago and it gradually replaced stone as it was easier to be shaped. In Australia, search for copper began after the European settlement, leading to the discovery of substantial deposits, like the one at the Olympic Dam in South Australia, which is regarded as one of the largest copper deposits in the world. Chalcopyrite has been used for copper since smelting processes began approximately five thousand years ago. Although by no means rare, this the specimen of this mineral can be used to reflect a wider history of industrial uses of copper for a significant portion of human history. 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 copper iron sulfide mineral of brass yellow, often with an iridescent tarnish, with greenish-black streak and submetallic luster. Chalcopyrite can be formed in several ways, including crystalizing from accessory minerals in igneous rocks, or from magma or within volcano sulfide deposits. Most commonly, chalcopyrite are found in hydrothermal conditions, where it forms in hydrothermal veins. As a member of the tetragonal crystal system, it often takes the shape of tetra-headed crystals, often with striations along the sides of the crystals. #18 Copper pyrites/(chalcopyrite) in/Laurentian Slate/(page 315 of inventory)/page missing from/descriptive catalogue/ Other label: 81 /fool's gold, chalcopyrite, mineral, rock, geology, geological, hydrothermal, neolithic, european settlement, olympic dam, south australia, stone, deposits, specific gravity, greenish grey streak, brittle, mineral gold, metallic luster, cufes2, greek words