John Kendrick Blogg was born in Canada and migrated to Victoria in 1877. In 1884 he established a successful industrial chemistry business, which included extracting perfume from Australian native trees and plants.liquid ammonia for refrigeration, acetic acid, perfumes, shoe polish, baking powder and non-alcoholic drinks. Other products were He lived at 'Balmoral' in Albany Crescent, Surrey Hills; his woodwork was produced here. Family oral history has that he took up woodcarving after his 1st wife, Annie, died in 1893. His earliest known piece is a music cabinet of 1901; the latest is a panel of 1932 when Blogg was 81 years of age. He was a member of the Victorian Artists Society and exhibited there between 1920 and 1924. Much of his work incorporates motifs of Australian flora, particularly gum leaves. John and his family were members of St Stephen's Presbyterian Church, Surrey Hills. The present church building was dedicated in December 1910 and J K Blogg's contribution to the new building was the Hogg Memorial pulpit which is comprised of 13 panels. Blogg carved more than 300 pieces for churches, schools, royalty, family and friends. Many of J K Blogg's pieces remain with family members, but he is represented in municipal (City of Whitehorse), state and national collections. In addition to work in the St Stephen's Presbyterian Church within the Surrey Hills area his work was produced for Surrey Hills Primary School, Surrey Hills Bowling Club and Surrey Hills Methodist Church, however perhaps his most famous local work is the honour board at the Shrine in the Surrey Gardens. Blogg was also a poet. Ref: Legacy in Sculptured Wood - An appreciation of the work of John Kendrick Blogg, 1851-1936 by Marjorie Morgan, 1993. The images derives from an early brochure. The number of panels has been increased having been updated on at least 2 occasions. Whereas the date 1914 is at one end of the boomerang, the other end is not dated reflecting that the dedication of The Shrine before the war ended.Black and white photo of the Soldiers' Memorial Honour Board housed in The Shrine in the Surrey Gardens. The wooden part of the board was carved by John Kendrick Blogg. A large boomerang forms part of the apex underneath which is an emblem with the rising sun. Under this are 8 panels on which are the names of service personnel. The supporting timber is carved with designs including varied flora. At the base are 2 larger carved panels; on the LHS a sprig of eucalyptus leaves and on the RHS a sprig of wattle. surrey gardens, world war, 1914-1918, woodcarving, monuments and memorials, surrey shrine, john blogg, john kendrick blogg

Johann August (John) Kruse was instrumental in the development of the pharmaceutical industry and pharmacy training in Victoria. He was a driving force behind the creation of the Pharmaceutical Society of Victoria and was appointed a founding member of the Society's inaugural council in 1857. He manufactured many pharmaceuticals and health products such as mineral waters and 'Kruse's Fluid Magnesia' (1863) which is still in use today. He later went on to produce insecticides and dynamite, then established his own analytical chemistry service. In 1878 Kruse established Victoria's first pharmacy training facility - the Melbourne School of Pharmacy. There pharmacy apprentices were taught chemistry, botany, materia medica and Latin, while country students could study by correspondence. The School was endorsed and monitored by the Pharmacy Board of Victoria to which Kruse was appointed in 1880. Kruse's pharmacy school was the forerunner of the Victorian College of Pharmacy, Monash University, which remains Victoria's only pharmacy training institute. In 1853, shortly after qualifying as pharmacist at the University of Göttingen, Johann August (John) Kruse, moved to London. The medical practitioner Dr S. Weil sent Kruse to Victoria, Australia to manage a new pharmacy and tobacconist's shop which he was having built at 136 Bridge Rd in Richmond. In 1856 Kruse opened a second pharmacy 'John Kruse and Company Chemists and Druggists' at 207 Bourke Street. 1857 the Richmond shop was destroyed by fire, so all pharmaceutical production was moved to the Bourke St premises and later to his new location at 184 Bourke St.. Kruse was forced to sell his business in 1868 to Felton Grimwade and Company and work for them as manager of their chemical works. By the early 1870s he had regained financial independence so left the company to establish his own businesses again. He opened up a pharmacy at 31 Swanston St and in c1874 leased Victoria's premier natural springs, Clifton Springs, on the northern side of the Bellarine Peninsula, where he established a bottling plant. Suspensions of magnesium hydroxide in water, often called Milk of Magnesia, are used as an antacid to neutralize stomach acid, and as a laxative. Milk of magnesia is sold for medical use as chewable tablets, capsules, and as liquids having various added flavours Kruses Fluid Magnesia 300ml Extralife Kruse’s Fluid Magnesia, Magnesium supplement. Rapidly absorbed, easily digested. Improves general well being, corrects magnesium deficiency. Helps relieve indigestion, when due to acidity. In 1878 Kruse established Victoria's first pharmacy training facility - the Melbourne School of Pharmacy, the forerunner of the Victorian College of Pharmacy, Monash University, which remains Victoria's only pharmacy training institute. A glass bottle containing ‘Kruse’s’ Magnesia’ medicineKRUSE’S / PRIZE MEDAL / MAGNESIA/ K / FELTON-GRIMWADE & CO. MELBOURNE Directions for use ......glass works, pharmaceutical glass, pharmacy, kruse johann august (john), dr weil s, ., victorian college of pharmacy, monash university, university of göttingen, felton grimwade and company, magnesium bicarbonate, magnesium oxide

TROVE : The Australian Women's Weekly (1933-1982), Wednesday 22 January, 1964, p.32, Advertising. Dexsal, containing 34% pure medicinal glucose for nausea . sick headache . mild indigestion . over indulgence . in food or drink . biliousness . acidity . heartburn . periodic upsets. Directions one or two teaspoons in a tumbler of cold water and drink during effervescence. May be taken as often as desired. Keep tightly capped. Net contents 4 ozs. Reg. VIC 2102, 758. Manufactured by Drug Houses of Australia. For your family - pick the simplest way to settle 'upset tummy' - double-acting DEXSAL The simplest - and safest - because it's formulated wholly and solely to settle upset tummy, nothing else. It contains no pain killer, which can so often set up an excess-acid reaction in the stomach. The lively, sparkling drink of Dexsal dissolved in water is safe. Simply-formulated Dexsal acts in two ways: brings quick, direct relief to upset tummy discomforts or sick feelings and, simultaneously, restores your lost energy. That's because Dexsal contains 34 % medicinal glucose - the energy-builder that quickly restores your natural vitality. Take care of your family, when upset-tummy strikes, with the lively Dexsal drink - the simplest way to settle tummy upsets. (N.B. Children love the fresh tingly-taste of Dexsal) Double-acting Dexsal quickly relieves: . Ordinary indigestion . Sick headache . Heartburn . Nausea . Acidity . Periodic upsets . Biliousness . Over-eating or . Car and travel sickness drinking Safe for alt the family. And especially recommended for expectant mothers. DEXSAL A product of Drug Houses of Australia. Drug Houses of Australia Ltd. (DHA) was established in 1930 after the amalgamation of several proprietary medicine companies, including Felton Grimwade & Co. and Duerdin & Sainsbury Ltd. In 1974 the decision was made, after suffering from enormous financial losses, to break up the company and sell it. Several sections of the company became Felton Grimwade & Bickford Pty Ltd. Timeline of amalgamations 1855 - 1867 Youngman McCann & Co, 1863 - 1930 A. M. Bickford & Sons, 1867 - 1930 Felton Grimwade & Co, - 1930 Taylor-Elliotts Ltd, ? - 1930 Duerdin and Sainsbury Ltd, ? - 1930 Elliott Brothers Limited, - 1930 Rocke Thompsitt, 1863 - 1930 A. M. Bickford & Sons, 1867 - 1930 Felton Grimwade & Co.' 1902 - 1930 Felton Grimwade & Bickford Ltd, 1930 - 1974 Drug Houses of Australia Ltd (DHA), c. 1974 - Felton Grimwade & Bickfords Pty Ltd. Large clear amber glass bottle, rectangular in section with angled corners, wide neck. Embossed text on large side panel, numeral on corner panel near base, monogram, letters and numerals on base.On side panel 'DEXSAL REG. TRADE MARK'. On corner panel near base '4'. On base the letter 'g' or numeral '9' on its side, AGM monogram, 'F397' over '4' , A space then the letter 'M'.dexsal, medicine, drug houses of australia

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone was an important commodity, used in corsets, collar stays, buggy whips, and toys.Whale bone in two pieces. Advanced stage of calcification as indicated by deep pitting. Off white to grey.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whale bones, whale skeleton, whales, whale bone, corsets, toys, whips

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone was an important commodity, used in corsets, collar stays, buggy whips, and toys.Whale bone piece. Advanced stage of calcification as indicated by deep pitting. Off white to grey.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whales, whale bone, corsets, toys, whips

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070. Whale bone was an important commodity, used in corsets, collar stays, buggy whips, and toys.Whale bone vertebrae. Advanced stage of calcification as indicated by deep pitting. Off white to grey.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whales, whale bone, corsets, toys, whips

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone was an important commodity, used in corsets, collar stays, buggy whips, and toys.Whale bone piece. Advanced stage of calcification as indicated by deep pitting. Off white to grey.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whales, whale bone, corsets, toys, whips

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone was an important commodity, used in corsets, collar stays, buggy whips, and toys.Whale bone piece. Advanced stage of calcification as indicated by deep pitting. Off white to grey.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whales, whale bone, corsets, toys, whips

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone was an important commodity, used in corsets, collar stays, buggy whips, and toys.Whale bone vertebrae. Advanced stage of calcification as indicated by deep pitting. Off white to grey.Noneflagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whales, whale bone, corsets, toys, whips, whalebone

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Whalebone The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The bone of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as whalebone. Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone during the 17th, 18th, 19th and early 20th centuries was an important industry providing an important commodity. Whales from these times provided everything from lighting & machine oils to using the animal's bones for use in corsets, collar stays, buggy whips, and many other everyday items then in use.Whale bone Vertebrae with advanced stage of calcification as indicated by deep pitting. Off white to grey.None.warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whale bones, whale skeleton, whales, whale bone, corsets, toys, whips, whaleling industry, maritime fishing, whalebone

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone during the 17th, 18th, 19th and early 20th centuries was an important industry providing an important commodity. Whales from these times provided everything from lighting & machine oils to using the animal's bones for use in corsets, collar stays, buggy whips, and many other everyday items then in use.Whale jaw bone one side, long & curved with advanced stage of calcification off white to grey.None.warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whale bones, whale skeleton, whales, whale bone, corsets, toys, whips, whaleling industry, maritime fishing, whalebone

Prior to carrying out a detailed condition report of the cetacean skeletons, it is useful to have an understanding of the materials we are likely to encounter, in terms of structure and chemistry. This entry invites you to join in learning about the composition of whale bone and oil. Whale bone (Cetacean) bone is comprised of a composite structure of both an inorganic matrix of mainly hydroxylapatite (a calcium phosphate mineral), providing strength and rigidity, as well as an organic protein ‘scaffolding’ of mainly collagen, facilitating growth and repair (O’Connor 2008, CCI 2010). Collagen is also the structural protein component in cartilage between the whale vertebrae and attached to the fins of both the Killer Whale and the Dolphin. Relative proportions in the bone composition (affecting density), are linked with the feeding habits and mechanical stresses typically endured by bones of particular whale types. A Sperm Whale (Physeter macrocephalus Linnaeus, 1758) skeleton (toothed) thus has a higher mineral value (~67%) than a Fin Whale (Balaenoptera physalus Linnaeus, 1758) (baleen) (~60%) (Turner Walker 2012). The internal structure of bone can be divided into compact and cancellous bone. In whales, load-bearing structures such as mandibles and upper limb bones (e.g. humerus, sternum) are largely composed of compact bone (Turner Walker 2012). This consists of lamella concentrically deposited around the longitudinal axis and is permeated by fluid carrying channels (O’Connor 2008). Cancellous (spongy) bone, with a highly porous angular network of trabeculae, is less stiff and thus found in whale ribs and vertebrae (Turner Walker 2012). Whale oil Whales not only carry a thick layer of fat (blubber) in the soft tissue of their body for heat insulation and as a food store while they are alive, but also hold large oil (lipid) reserves in their porous bones. Following maceration of the whale skeleton after death to remove the soft tissue, the bones retain a high lipid content (Higgs et. al 2010). Particularly bones with a spongy (porous) structure have a high capacity to hold oil-rich marrow. Comparative data of various whale species suggests the skull, particularly the cranium and mandible bones are particularly oil rich. Along the vertebral column, the lipid content is reduced, particularly in the thoracic vertebrae (~10-25%), yet greatly increases from the lumbar to the caudal vertebrae (~40-55%). The chest area (scapula, sternum and ribs) show a mid-range lipid content (~15-30%), with vertically orientated ribs being more heavily soaked lower down (Turner Walker 2012, Higgs et. al 2010). Whale oil is largely composed of triglycerides (molecules of fatty acids attached to a glycerol molecule). In Arctic whales a higher proportion of unsaturated, versus saturated fatty acids make up the lipid. Unsaturated fatty acids (with double or triple carbon bonds causing chain kinks, preventing close packing (solidifying) of molecules), are more likely to be liquid (oil), versus solid (fat) at room temperature (Smith and March 2007). Objects Made From the Whaling Industry We all know that men set forth in sailing ships and risked their lives to harpoon whales on the open seas throughout the 1800s. And while Moby Dick and other tales have made whaling stories immortal, people today generally don't appreciate that the whalers were part of a well-organized industry. The ships that set out from ports in New England roamed as far as the Pacific in hunt of specific species of whales. Adventure may have been the draw for some whalers, but for the captains who owned whaling ships, and the investors which financed voyages, there was a considerable monetary payoff. The gigantic carcasses of whales were chopped and boiled down and turned into products such as the fine oil needed to lubricate increasing advanced machine tools. And beyond the oil derived from whales, even their bones, in an era before the invention of plastic, was used to make a wide variety of consumer goods. In short, whales were a valuable natural resource the same as wood, minerals, or petroleum we now pump from the ground. Oil From Whale’s Blubber Oil was the main product sought from whales, and it was used to lubricate machinery and to provide illumination by burning it in lamps. When a whale was killed, it was towed to the ship and its blubber, the thick insulating fat under its skin, would be peeled and cut from its carcass in a process known as “flensing.” The blubber was minced into chunks and boiled in large vats on board the whaling ship, producing oil. The oil taken from whale blubber was packaged in casks and transported back to the whaling ship’s home port (such as New Bedford, Massachusetts, the busiest American whaling port in the mid-1800s). From the ports it would be sold and transported across the country and would find its way into a huge variety of products. Whale oil, in addition to be used for lubrication and illumination, was also used to manufacture soaps, paint, and varnish. Whale oil was also utilized in some processes used to manufacture textiles and rope. Spermaceti, a Highly Regarded Oil A peculiar oil found in the head of the sperm whale, spermaceti, was highly prized. The oil was waxy, and was commonly used in making candles. In fact, candles made of spermaceti were considered the best in the world, producing a bright clear flame without an excess of smoke. Spermaceti was also used, distilled in liquid form, as an oil to fuel lamps. The main American whaling port, New Bedford, Massachusetts, was thus known as "The City That Lit the World." When John Adams was the ambassador to Great Britain before serving as president he recorded in his diary a conversation about spermaceti he had with the British Prime Minister William Pitt. Adams, keen to promote the New England whaling industry, was trying to convince the British to import spermaceti sold by American whalers, which the British could use to fuel street lamps. The British were not interested. In his diary, Adams wrote that he told Pitt, “the fat of the spermaceti whale gives the clearest and most beautiful flame of any substance that is known in nature, and we are surprised you prefer darkness, and consequent robberies, burglaries, and murders in your streets to receiving as a remittance our spermaceti oil.” Despite the failed sales pitch John Adams made in the late 1700s, the American whaling industry boomed in the early to mid-1800s. And spermaceti was a major component of that success. Spermaceti could be refined into a lubricant that was ideal for precision machinery. The machine tools that made the growth of industry possible in the United States were lubricated, and essentially made possible, by oil derived from spermaceti. Baleen, or "Whalebone" The bones and teeth of various species of whales were used in a number of products, many of them common implements in a 19th century household. Whales are said to have produced “the plastic of the 1800s.” The "bone" of the whale which was most commonly used wasn’t technically a bone, it was baleen, a hard material arrayed in large plates, like gigantic combs, in the mouths of some species of whales. The purpose of the baleen is to act as a sieve, catching tiny organisms in sea water, which the whale consumes as food. As baleen was tough yet flexible, it could be used in a number of practical applications. And it became commonly known as "whalebone." Perhaps the most common use of whalebone was in the manufacture of corsets, which fashionable ladies in the 1800s wore to compress their waistlines. One typical corset advertisement from the 1800s proudly proclaims, “Real Whalebone Only Used.” Whalebone was also used for collar stays, buggy whips, and toys. Its remarkable flexibility even caused it to be used as the springs in early typewriters. The comparison to plastic is apt. Think of common items which today might be made of plastic, and it's likely that similar items in the 1800s would have been made of whalebone. Baleen whales do not have teeth. But the teeth of other whales, such as the sperm whale, would be used as ivory in such products as chess pieces, piano keys, or the handles of walking sticks. Pieces of scrimshaw, or carved whale's teeth, would probably be the best remembered use of whale's teeth. However, the carved teeth were created to pass the time on whaling voyages and were never a mass production item. Their relative rarity, of course, is why genuine pieces of 19th century scrimshaw are considered to be valuable collectibles today. Reference: McNamara, Robert. "Objects Made From the Whaling Industry." ThoughtCo, Jul. 31, 2021, thoughtco.com/products-produced-from-whales-1774070.Whale bone during the 17th, 18th, 19th and early 20th centuries was an important industry providing an important commodity. Whales from these times provided everything from lighting & machine oils to using the animal's bones for use in corsets, collar stays, buggy whips, and many other everyday items then in use.Whale rib bone with advanced stage of calcification as indicated by brittleness. None.warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, whale bones, whale skeleton, whales, whale bone, corsets, toys, whips, whaleling industry, maritime fishing, whalebone

Painted for the Shire of Eltham Historical Society by Audrey Cahn, a member of our Society for many years and Vice President till 1978. Audrey was the sister of the late Charis Palling, founding president of our Society. She had remained a member for many years although she had moved from her family home at Warrandyte to live with her daughter in New South Wales. Audrey had been blind for some years but maintained a local interest by having our Newsletter read to her. Audrey's associations with Warrandyte started because her father Professor Osbourne had bought 60 acres in 1904. " Gold mining was beginning to die out and Warrandyte was a decaying area. Land was cheap because of the lack of transport and the soil was poor for farming” Audrey said. Audrey first attended school in the city at the Church of England Girls Grammar School and was always a bit rebellious. “If I felt some restrictions were unfair or some judgement unjust, I resented it”. Audrey got into Agricultural Science at Melbourne University and in 1928 was the second women to get such a degree. Audrey married in 1926, and later divorced Leslie Cahn an architect. They had twin daughters whom she left with her parents in Warrandyte while she studied dietetics during the depression. She found employment as a microbiologist at the Kraft/Walker Milk and Cheese Factory in Drouin - she drove home at weekends to see her daughters who were then at boarding school. During the war Audrey was in charge of catering at the Heidelberg Military Hospital – again the appointment of a women caused some unrest. She was in the army for more than 4 years and achieved the rank of General which-made her the most highly-ranked-woman at the hospital. After the war she became a senior lecturer in Dietetics at Melbourne University, again being aware of the limitations her gender brought to promotion possibilities. During her time at the university, she undertook a series of studies in nutritional biochemistry. Of especial note is the analysis of common dietary foods so that the composition and calorific value, the data that was needed for inclusion in Food tables - that professional sports people and weight-watchers so avidly follow today! She was an early proponent of the need to reduce fat intake and to substitute saturated fats with polyunsaturated fatty acids. In the 1950's Audrey and fellow workers established norms for the growth of Australian children to be compared with British and American children. Over 17 years they concluded that Australian children were overweight and inactive - what is new! She bought a cottage in Warrandyte as her home. In 1968 she retired to further develop her other interests as a potter and painter. Audrey was a foundation member of the group of potters that set up Potters Cottage. Audrey died in 2008 aged 102. (Ref:Newsletter No. 185 March 2009)art, artwork, audrey cahn, eltham, old bakery, york street

"The United Pyrites Company's Works are situated about three quarters of a mile from Spargo Brothers, and are on the northern side of the Marong road, in Pinch-gut Gully. Two processes are followed at these works, viz., the amalgamating process and the treatment by means of chlorine gas. The latter is called the Newbery-Vautin system, and the mode pursued is that laid down by Mr. Cosmo Newbery and Mr Vautin, whose names have been given to the process. Mr. Edwards manages these works. Three reverbatory furnaces are used to roast the pyrites, which is weighed in the truck before being put into the furnaces. At this weighbridge a sample of each lot is kept, and if the yield is not equal to expectation, the works are carefully gone over to see where the fault occurs. Care is taken at the furnace to regulate the heat, otherwise the pyrites might slag instead of roasting evenly right through. An immense revolving furnace (made of boiler iron) was used at these works. It was found to be suitable for treating blanket sand, but was not a success for roasting coarse pyrites. The process of amalgamating by means of Chilian mills is the same in these works as at the Western Works, but the United Works are on a larger scale, and eleven mills are utilised. It is the chlorine gas process which is most interesting here. The gas is made from sulphuric acid, black oxide of manganese, and common salt, and the gas is introduced into huge vats, where it works its way through a filter of pieces of quartz and then through the bed of roasted pyrites lying above. The action of the gas transforms the gold into chloride of gold. This is easily dissolved in water, and in that form is drawn off into huge delf jars, where the use of sulphate of iron precipitates the gold to the bottom. A small battery—eight head of stamps in two boxes—is in use here to crush small consignments of stone sent for trial. Test crushings come from all the Australasian colonies, and even from India. The jars used are manufactured at Epsom, and some of the salt used is also of home manufacture, from the Salt Lakes on the Northern plains. Mr. Edwards took us over a new building in course of erection, and in which the chlorine gas is to be generated in the midst of the pyrites— a still further advancement in the new process. There is some very good machinery in this new building, and the tailings from the ordinary pyrites works will also be treated by this chlorine gas system, which has been found to work well at Mount Morgan, in Queensland. The purest of gold is obtained by this process, the gold passing in solution into a charcoal filter, from which it emerges in the shape of metallic gold. We saw some nice cakes of retorted gold at the works. One of 26oz. was from some New Zealand pyrites (2½ tons), and assayed over 23 carats. There were also cakes of Avoca gold, of silver, and of the tremulous amalgam." (The Argus, 4 February 1887)Two handwritten letters to the Ballarat School of Mines on Bendigo United Pyrites Company Letterhead.bendigo united pyrites company, pyrites, ballarat school of mines, j.j. deeble, joel deeble, joel james deeble, a.m. dean, fred j. martell, martell, s.h. cowan, letterhead

This bottle was made in Scotland and recovered decades later from a shipwreck along the coast of Victoria. It may have been amongst the ship's cargo, its provisions or amongst a passenger's personal luggage. It is now part of the John Chance collection. Stoneware bottles similar to this one were in common use during the mid-to-late 19th century. They were used to store and transport. The bottles were handmade using either a potter's wheel or in moulds such as a plaster mould, which gave the bottles uniformity in size and shape. The bottle would then be fired and glazed in a hot kiln. Makers often identified their bottles with the impression of a small symbol or adding a colour to the mouth. The manufacturer usually stamped their bottles with their name and logo, and sometimes a message that the bottle remained their property and should be returned to them. The bottles could then be cleaned and refilled. DUNDAS POTTERY WORKS - The Dundas Pottery works were established in 1828 by William Johnstone in partnership with John Forsyth and John Mc Coll. Located where the Forth and Clyde Canal joined the Monkland Canal, North of Glasgow. Johnstone sold the pottery in 1835 to Robert Cochran and James Couper. Mc Coll was retained as manager until 1837when in 1839 Cochran & Couper sold the pottery and purchased the St Rollex Glass Works. George Duncan took over briefly but died in 1841, with the pottery possibly being run by his widow Helen and a potter named Alexander Paul. James Miller was the manager at the time and he bought the pottery in 1856, in partnership with John Moody. Miller's long and careful stewardship of the pottery saw success from the export market which allowed him to purchase the North British pottery in 1867 until 1874 when it was sold. In 1875, Miller, in partnership with John Young, leased part of Caledonian Pottery, naming it Crown Pottery, however, it burned down in 1879. In the early 1880s, Young extended the pottery and named it Milton Pottery. Miller’s son, James W., became a partner in Milton pottery in 1905. James Miller Snr died in 1905 and the company continued as a limited liability company, being sold to the Borax Consolidation Ltd in 1929, but it was unsuccessful and Possil pottery purchased some of the company's equipment before it finally closed in 1932. From 1828 until the James Miller period of circa 1856, the pottery produced salt-glazed stoneware for the local industrial trade; mainly bottles and drain pipes. James Miller produced various bottles, whisky and acid jars, casks, butter crocks, jam jars and domestic wares in Bristol glaze. He streamlined the water filter manufacturing, which had become a specialty of the pottery, and a dedicated section of the pottery was created solely for their production, which was exported worldwide. This stoneware bottle is historically significant for its manufacture and use in the late 19th to the early 20th century. This bottle is historically significant for its connection with the well-known stoneware manufacturers, Dundas Pottery of Glasgow, Scotland. The bottle is also significant as it was recovered by John Chance, a diver, from a wreck on the coast of Victoria in the 1960s-70s. Items that come from several wrecks along Victoria's coast have since been donated to the Flagstaff Hill Maritime Village’s museum collection by his family, illustrating this item’s level of historical value. Bottle, salt glazed stoneware, beige, sealed with wax, discolouration above base. Inscriptions stamped near base. Stamp: [symbol of concentric ovals], text within the symbol "PORT DUNDAS POTTERY COY." and "GLASGOW". Stamp:[Symbol - square with short vertical line in centre of base line] flagstaff hill, warrnambool, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, shipwreck artefact, stoneware, ironstone, pottery, bottle, port dundas pottery, glasgow, john chance, antique bottle, william johnstone

This bottle was made in Scotland and recovered decades later from a shipwreck along the coast of Victoria. It may have been amongst the ship's cargo, its provisions or amongst a passenger's personal luggage. It is now part of the John Chance collection. Stoneware bottles similar to this one were in common use during the mid-to-late 19th century. They were used to store and transport. The bottles were handmade using either a potter's wheel or in moulds such as a plaster mould, which gave the bottles uniformity in size and shape. The bottle would then be fired and glazed in a hot kiln. Makers often identified their bottles with the impression of a small symbol or adding a colour to the mouth. The manufacturer usually stamped their bottles with their name and logo, and sometimes a message that the bottle remained their property and should be returned to them. The bottles could then be cleaned and refilled. DUNDAS POTTERY WORKS - The Dundas Pottery works were established in 1828 by William Johnstone in partnership with John Forsyth and John Mc Coll. Located where the Forth and Clyde Canal joined the Monkland Canal, North of Glasgow. Johnstone sold the pottery in 1835 to Robert Cochran and James Couper. Mc Coll was retained as manager until 1837when in 1839 Cochran & Couper sold the pottery and purchased the St Rollex Glass Works. George Duncan took over briefly but died in 1841, with the pottery possibly being run by his widow Helen and a potter named Alexander Paul. James Miller was the manager at the time and he bought the pottery in 1856, in partnership with John Moody. Miller's long and careful stewardship of the pottery saw success from the export market which allowed him to purchase the North British pottery in 1867 until 1874 when it was sold. In 1875, Miller, in partnership with John Young, leased part of Caledonian Pottery, naming it Crown Pottery, however, it burned down in 1879. In the early 1880s, Young extended the pottery and named it Milton Pottery. Miller’s son, James W., became a partner in Milton pottery in 1905. James Miller Snr died in 1905 and the company continued as a limited liability company, being sold to the Borax Consolidation Ltd in 1929, but it was unsuccessful and Possil pottery purchased some of the company's equipment before it finally closed in 1932. From 1828 until the James Miller period of circa 1856, the pottery produced salt-glazed stoneware for the local industrial trade; mainly bottles and drain pipes. James Miller produced various bottles, whisky and acid jars, casks, butter crocks, jam jars and domestic wares in Bristol glaze. He streamlined the water filter manufacturing, which had become a speciality of the pottery, and a dedicated section of the pottery was created solely for their production, which was exported worldwide. This stoneware bottle is historically significant for its manufacture and use in the late 19th to the early 20th century. This bottle is historically significant for its connection with the well-known stoneware manufacturers, Dundas Pottery of Glasgow, Scotland. The bottle is also significant as it was recovered by John Chance, a diver, from a wreck on the coast of Victoria in the 1960s-70s. Items that come from several wrecks along Victoria's coast have since been donated to the Flagstaff Hill Maritime Village’s museum collection by his family, illustrating this item’s level of historical value.Bottle, salt glazed stoneware, beige, sealed with wax, some discolouration above base. Inscription stamped near base..Stamp: [symbol of concentric ovals], text within the symbol "PORT DUNDAS POTTERY COY." and "GLASGOW". Stamp:[Symbol - square with short vertical line in centre of base line]flagstaff hill, warrnambool, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, john chance, shipwreck artefact, stoneware, ironstone, pottery, bottle, port dundas pottery, glasgow, antique bottle, william johnstone

This bottle was made in Scotland and recovered decades later from a shipwreck along the coast of Victoria. It may have been amongst the ship's cargo, its provisions or amongst a passenger's personal luggage. It is now part of the John Chance collection. Stoneware bottles similar to this one were in common use during the mid-to-late 19th century. They were used to store and transport. The bottles were handmade using either a potter's wheel or in moulds such as a plaster mould, which gave the bottles uniformity in size and shape. The bottle would then be fired and glazed in a hot kiln. Makers often identified their bottles with the impression of a small symbol or adding a colour to the mouth. The manufacturer usually stamped their bottles with their name and logo, and sometimes a message that the bottle remained their property and should be returned to them. The bottles could then be cleaned and refilled. DUNDAS POTTERY WORKS - The Dundas Pottery works were established in 1828 by William Johnstone in partnership with John Forsyth and John Mc Coll. Located where the Forth and Clyde Canal joined the Monkland Canal, North of Glasgow. Johnstone sold the pottery in 1835 to Robert Cochran and James Couper. Mc Coll was retained as manager until 1837when in 1839 Cochran & Couper sold the pottery and purchased the St Rollex Glass Works. George Duncan took over briefly but died in 1841, with the pottery possibly being run by his widow Helen and a potter named Alexander Paul. James Miller was the manager at the time and he bought the pottery in 1856, in partnership with John Moody. Miller's long and careful stewardship of the pottery saw success from the export market which allowed him to purchase the North British pottery in 1867 until 1874 when it was sold. In 1875, Miller, in partnership with John Young, leased part of Caledonian Pottery, naming it Crown Pottery, however, it burned down in 1879. In the early 1880s, Young extended the pottery and named it Milton Pottery. Miller’s son, James W., became a partner in Milton pottery in 1905. James Miller Snr died in 1905 and the company continued as a limited liability company, being sold to the Borax Consolidation Ltd in 1929, but it was unsuccessful and Possil pottery purchased some of the company's equipment before it finally closed in 1932. From 1828 until the James Miller period of circa 1856, the pottery produced salt-glazed stoneware for the local industrial trade; mainly bottles and drain pipes. James Miller produced various bottles, whisky and acid jars, casks, butter crocks, jam jars and domestic wares in Bristol glaze. He streamlined the water filter manufacturing, which had become a speciality of the pottery, and a dedicated section of the pottery was created solely for their production, which was exported worldwide.This stoneware bottle is historically significant for its manufacture and use in the late 19th to the early 20th century. This bottle is historically significant for its connection with the well-known stoneware manufacturers, Dundas Pottery of Glasgow, Scotland. The bottle is also significant as it was recovered by John Chance, a diver, from a wreck on the coast of Victoria in the 1960s-70s. Items that come from several wrecks along Victoria's coast have since been donated to the Flagstaff Hill Maritime Village’s museum collection by his family, illustrating this item’s level of historical value.Bottle, salt glazed stoneware, beige, part sealed with wax and cork, very little discolouration. Inscriptions stamped near base.Stamp: [symbol of concentric ovals], text within the symbol "PORT DUNDAS POTTERY COY." and "GLASGOW". Stamp:[Symbol - square with short vertical line in centre of base line]flagstaff hill, warrnambool, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, john chance, shipwreck artefact, stoneware, ironstone, pottery, bottle, port dundas pottery, glasgow, antique bottle, william johnstone

This bottle was made in Scotland and recovered decades later from a shipwreck along the coast of Victoria. It may have been amongst the ship's cargo, its provisions or amongst a passenger's personal luggage. It is now part of the John Chance collection. Stoneware bottles similar to this one were in common use during the mid-to-late 19th century. They were used to store and transport. The bottles were handmade using either a potter's wheel or in moulds such as a plaster mould, which gave the bottles uniformity in size and shape. The bottle would then be fired and glazed in a hot kiln. Makers often identified their bottles with the impression of a small symbol or adding a colour to the mouth. The manufacturer usually stamped their bottles with their name and logo, and sometimes a message that the bottle remained their property and should be returned to them. The bottles could then be cleaned and refilled. DUNDAS POTTERY WORKS - The Dundas Pottery works were established in 1828 by William Johnstone in partnership with John Forsyth and John Mc Coll. Located where the Forth and Clyde Canal joined the Monkland Canal, North of Glasgow. Johnstone sold the pottery in 1835 to Robert Cochran and James Couper. Mc Coll was retained as manager until 1837when in 1839 Cochran & Couper sold the pottery and purchased the St Rollex Glass Works. George Duncan took over briefly but died in 1841, with the pottery possibly being run by his widow Helen and a potter named Alexander Paul. James Miller was the manager at the time and he bought the pottery in 1856, in partnership with John Moody. Miller's long and careful stewardship of the pottery saw success from the export market which allowed him to purchase the North British pottery in 1867 until 1874 when it was sold. In 1875, Miller, in partnership with John Young, leased part of Caledonian Pottery, naming it Crown Pottery, however, it burned down in 1879. In the early 1880s, Young extended the pottery and named it Milton Pottery. Miller’s son, James W., became a partner in Milton pottery in 1905. James Miller Snr died in 1905 and the company continued as a limited liability company, being sold to the Borax Consolidation Ltd in 1929, but it was unsuccessful and Possil pottery purchased some of the company's equipment before it finally closed in 1932. From 1828 until the James Miller period of circa 1856, the pottery produced salt-glazed stoneware for the local industrial trade; mainly bottles and drain pipes. James Miller produced various bottles, whisky and acid jars, casks, butter crocks, jam jars and domestic wares in Bristol glaze. He streamlined the water filter manufacturing, which had become a specialty of the pottery, and a dedicated section of the pottery was created solely for their production, which was exported worldwide.This stoneware bottle is historically significant for its manufacture and use in the late 19th to the early 20th century. This bottle is historically significant for its connection with the well-known stoneware manufacturers, Dundas Pottery of Glasgow, Scotland. The bottle is also significant as it was recovered by John Chance, a diver, from a wreck on the coast of Victoria in the 1960s-70s. Items that come from several wrecks along Victoria's coast have since been donated to the Flagstaff Hill Maritime Village’s museum collection by his family, illustrating this item’s level of historical value.Bottle, salt glazed stoneware, beige, sealed with cork, no discolouration . Inscriptions stamped near base.Stamp: [symbol of concentric ovals], text within the symbol "PORT DUNDAS POTTERY COY." and "GLASGOW". Stamp:[Symbol - square with short vertical line in centre of base line]flagstaff hill, warrnambool, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, john chance, shipwreck artefact, stoneware, ironstone, pottery, bottle, port dundas pottery, glasgow, antique bottle, william johnstone

This bottle was made in Scotland and recovered decades later from a shipwreck along the coast of Victoria. It may have been amongst the ship's cargo, its provisions or amongst a passenger's personal luggage. It is now part of the John Chance collection. Stoneware bottles similar to this one were in common use during the mid-to-late 19th century. They were used to store and transport. The bottles were handmade using either a potter's wheel or in moulds such as a plaster mould, which gave the bottles uniformity in size and shape. The bottle would then be fired and glazed in a hot kiln. Makers often identified their bottles with the impression of a small symbol or adding a colour to the mouth. The manufacturer usually stamped their bottles with their name and logo, and sometimes a message that the bottle remained their property and should be returned to them. The bottles could then be cleaned and refilled. DUNDAS POTTERY WORKS - The Dundas Pottery works were established in 1828 by William Johnstone in partnership with John Forsyth and John Mc Coll. Located where the Forth and Clyde Canal joined the Monkland Canal, North of Glasgow. Johnstone sold the pottery in 1835 to Robert Cochran and James Couper. Mc Coll was retained as manager until 1837when in 1839 Cochran & Couper sold the pottery and purchased the St Rollex Glass Works. George Duncan took over briefly but died in 1841, with the pottery possibly being run by his widow Helen and a potter named Alexander Paul. James Miller was the manager at the time and he bought the pottery in 1856, in partnership with John Moody. Miller's long and careful stewardship of the pottery saw success from the export market which allowed him to purchase the North British pottery in 1867 until 1874 when it was sold. In 1875, Miller, in partnership with John Young, leased part of Caledonian Pottery, naming it Crown Pottery, however, it burned down in 1879. In the early 1880s, Young extended the pottery and named it Milton Pottery. Miller’s son, James W., became a partner in Milton pottery in 1905. James Miller Snr died in 1905 and the company continued as a limited liability company, being sold to the Borax Consolidation Ltd in 1929, but it was unsuccessful and Possil pottery purchased some of the company's equipment before it finally closed in 1932. From 1828 until the James Miller period of circa 1856, the pottery produced salt-glazed stoneware for the local industrial trade; mainly bottles and drain pipes. James Miller produced various bottles, whisky and acid jars, casks, butter crocks, jam jars and domestic wares in Bristol glaze. He streamlined the water filter manufacturing, which had become a specialty of the pottery, and a dedicated section of the pottery was created solely for their production, which was exported worldwide.This stoneware bottle is historically significant for its manufacture and use in the late 19th to the early 20th century. This bottle is historically significant for its connection with the well-known stoneware manufacturers, Dundas Pottery of Glasgow, Scotland. The bottle is also significant as it was recovered by John Chance, a diver, from a wreck on the coast of Victoria in the 1960s-70s. Items that come from several wrecks along Victoria's coast have since been donated to the Flagstaff Hill Maritime Village’s museum collection by his family, illustrating this item’s level of historical value.Bottle, salt glazed stoneware, beige, large chip on lip of bottle. Inscription stamped near base.Stamp: [symbol of concentric ovals], text within the symbol "PORT DUNDAS POTTERY COY." and "GLASGOW". Stamp:[Symbol - square with short vertical line in centre of base line]flagstaff hill, warrnambool, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, john chance, shipwreck artefact, stoneware, ironstone, pottery, bottle, port dundas pottery, glasgow, antique bottle, william johnstone

This bottle was made in Scotland and recovered decades later from a shipwreck along the coast of Victoria. It may have been amongst the ship's cargo, its provisions or amongst a passenger's personal luggage. It is now part of the John Chance collection. Stoneware bottles similar to this one were in common use during the mid-to-late 19th century. They were used to store and transport. The bottles were handmade using either a potter's wheel or in moulds such as a plaster mould, which gave the bottles uniformity in size and shape. The bottle would then be fired and glazed in a hot kiln. Makers often identified their bottles with the impression of a small symbol or adding a colour to the mouth. The manufacturer usually stamped their bottles with their name and logo, and sometimes a message that the bottle remained their property and should be returned to them. The bottles could then be cleaned and refilled. DUNDAS POTTERY WORKS - The Dundas Pottery works were established in 1828 by William Johnstone in partnership with John Forsyth and John Mc Coll. Located where the Forth and Clyde Canal joined the Monkland Canal, North of Glasgow. Johnstone sold the pottery in 1835 to Robert Cochran and James Couper. Mc Coll was retained as manager until 1837 when in 1839 Cochran & Couper sold the pottery and purchased the St Rollex Glass Works. George Duncan took over briefly but died in 1841, with the pottery possibly being run by his widow Helen and a potter named Alexander Paul. James Miller was the manager at the time and he bought the pottery in 1856, in partnership with John Moody. Miller's long and careful stewardship of the pottery saw success from the export market which allowed him to purchase the North British pottery in 1867 until 1874 when it was sold. In 1875, Miller, in partnership with John Young, leased part of Caledonian Pottery, naming it Crown Pottery, however, it burned down in 1879. In the early 1880s, Young extended the pottery and named it Milton Pottery. Miller’s son, James W., became a partner in Milton pottery in 1905. James Miller Snr died in 1905 and the company continued as a limited liability company, being sold to the Borax Consolidation Ltd in 1929, but it was unsuccessful and Possil pottery purchased some of the company's equipment before it finally closed in 1932. From 1828 until the James Miller period of circa 1856, the pottery produced salt-glazed stoneware for the local industrial trade; mainly bottles and drain pipes. James Miller produced various bottles, whisky and acid jars, casks, butter crocks, jam jars and domestic wares in Bristol glaze. He streamlined the water filter manufacturing, which had become a speciality of the pottery, and a dedicated section of the pottery was created solely for their production, which was exported worldwide.This stoneware bottle is historically significant for its manufacture and use in the late 19th to the early 20th century. This bottle is historically significant for its connection with the well-known stoneware manufacturers, Dundas Pottery of Glasgow, Scotland. The bottle is also significant as it was recovered by John Chance, a diver, from a wreck on the coast of Victoria in the 1960s-70s. Items that come from several wrecks along Victoria's coast have since been donated to the Flagstaff Hill Maritime Village’s museum collection by his family, illustrating this item’s level of historical value.Bottle, salt glazed stoneware, beige, sealed with cork and wax, discolouration on upper part. Inscription stamped near base.Stamp: [symbol of concentric ovals], text within the symbol "PORT DUNDAS POTTERY COY." and "GLASGOW". Stamp:[Symbol - square with short vertical line in centre of base line]flagstaff hill, warrnambool, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, john chance, shipwreck artefact, stoneware, ironstone pottery, bottle, port dundas pottery, glasgow, antique bottle, william johnstone

This shaped ink bottle made by Caldwell's is called a 'boat ink bottle'. It was shaped especially to hold a nib pen when the pen was not in use. The design of the bottle is sometimes called a ‘cottage’ or ‘boat’ shape. The Caldwell’s handmade glass ink bottle was mouth-blown into a two-piece mould, a method often used in the mid-to-late 19th century. The glass blower burst the bottle off the end of his blowpipe with a tool, leaving an uneven mouth and sharp edge on the bottle, which was usually filed. The bottle was then filled with ink and sealed with a cork. More expensive bottles would have a lip added, which was more time-consuming and costly to produce. The capacity for a bottle such as this was about 3 ½ oz (ounces) equal to about 100 ml. Pen and ink have been in use for handwriting since about the seventh century. A quill pen made from a bird’s feather was used up until around the mid-19th century. In the 1850s a steel point nib for the dip pen was invented and could be manufactured on machines in large quantities. The nis only held a small amount of ink so users had to frequently dip the nib into an ink well for more ink. Handwriting left wet ink on the paper, so the blotting paper was carefully used to absorb the excess ink and prevent smudging. Ink could be purchased as a ready-to-use liquid or in powdered form, which needed to be mixed with water. In the 1880s a successful, portable fountain pen gave smooth-flowing ink and was easy to use. In the mid-20th century, the modern ballpoint pen was readily available and inexpensive, so the fountain pen lost its popularity. However, artisans continue to use nib pens to create beautiful calligraphy. Caldwell’s Ink Co. – F.R. Caldwell established Caldwell’s Ink Company in Australia around 1902. In Victoria, he operated from a factory at Victoria Avenue, Albert Park, until about 1911, then from Yarra Bank Road in South Melbourne. Newspaper offices were appointed as agencies to sell his inks, for example, in 1904 the New Zealand Evening Star sold Caldwell’s Flo-Eesi blue black ink in various bottle sizes, and Murchison Advocate (Victoria) stocked Caldwell’s ink in crimson, green, blue black, violet, and blue. Caldwell’s ink was stated to be “non-corrosive and unaffected by steel pens”. A motto used in advertising in 1904-1908 reads ‘Makes Writing a Pleasure’. Stationers stocked Caldwell’s products and hawkers sold Caldwell’s ink stands from door to door in Sydney in the 1910s and 1920s. In 1911 Caldwell promised cash for returned ink bottles and warned of prosecution for anyone found refilling his bottles. Caldwell’s Ink Stands were given as gifts. The company encouraged all forms of writing with their Australian-made Flo-Eesi writing inks and bottles at their impressive booth in the ‘All Australian Exhibition’ in 1913. It advertised its other products, which included Caldwell’s Gum, Caldwell’s Stencil Ink (copy ink) and Caldwell’s Quicksticker as well as Caldwell’s ‘Zac’ Cough Mixture. Caldwell stated in a 1920 article that his inks were made from a formula that was over a century old, and were scientifically tested and quality controlled. The formula included gallic and tannic acids and high-quality dyes to ensure that they did not fade. They were “free from all injurious chemicals”. The permanent quality of the ink was important for legal reasons, particularly to banks, accountants, commerce, municipal councils and lawyers. The Caldwell’s Ink Company also exported crates of its ink bottles and ink stands overseas. Newspaper advertisements can be found for Caldwell’s Ink Company up until 1934 when the company said they were the Best in the business for 40 years.This pen and ink bottle set is of significance as the bottle has its original cork and retains remnants of ink, which was made from a recipe that at the time was over 100 years old, according to Caldwell.. The handmade, mould blown method of manufacture is representative of a 19th-century handcraft industry that is now been largely replaced by mass production. The bottle and its contents are of state significance for being produced by an early Melbourne industry and exported overseas. The pen and ink set is historically significant as it represents methods of handwritten communication that were still common up until the mid-20th century when fountain pens and modern ballpoint pens became popular and convenient and typewriters were becoming part of standard office equipment.Victorian boat ink bottle; small rectangular clear glass ink bottle with horizontal grooves made in the glass for resting and holding the pen. The set includes one pen and nib with the bottle and cork. The bottle is made by Caldwell's and contains its Flo-Eesi Blue Black Ink brand."Caldwell's Flo-Eesi Blue Black Ink."flagstaff hill, warrnambool, maritime museum, maritime village, great ocean road, shipwreck coast, ink, nib pen, writing ink, writing, copying, banks, lawyers, commerce, student, permanent ink, flo-eesi, blue black ink, stationery, record keeping, handwriting, writing equipment, writing accessory, office supply, cottage bottle, boat bottle, mouth-blown bottle, two-part mould, sheer-lip bottle, burst-lip, cork seal, f r caldwell, caldwell’s ink company, albert park, south melbourne, inkstands, stencil ink, copy ink, quicksticker, zac cough mixture

This crate of bottles may have come from a wholesaler, business, stationer or school. The design of the bottles is sometimes called a ‘cottage’ or ‘boat’ shape. Each of the 70 Caldwell’s handmade glass ink bottles was mouth-blown into a two-piece mould, a method often used in the mid-to-late 19th century. The glass blower burst the bottle off the end of his blowpipe with a tool, leaving an uneven mouth and sharp edge on the bottle, which was usually filed. The bottle was then filled with ink and sealed with a cork. More expensive bottles would have a lip added, which was more time-consuming and costly to produce. The capacity for a bottle such as this was about 3 ½ oz (ounces) equal to about 100 ml. Pen and ink have been in use for handwriting since about the seventh century. A quill pen made from a bird’s feather was used up until around the mid-19th century. In the 1850s a steel point nib for the dip pen was invented and could be manufactured on machines in large quantities. The nis only held a small amount of ink so users had to frequently dip the nib into an ink well for more ink. Handwriting left wet ink on the paper, so the blotting paper was carefully used to absorb the excess ink and prevent smudging. Ink could be purchased as a ready-to-use liquid or in powdered form, which needed to be mixed with water. In the 1880s a successful, portable fountain pen gave smooth-flowing ink and was easy to use. In the mid-20th century, the modern ballpoint pen was readily available and inexpensive, so the fountain pen lost its popularity. However, artisans continue to use nib pens to create beautiful calligraphy. Caldwell’s Ink Co. – F.R. Caldwell established Caldwell’s Ink Company in Australia around 1902. In Victoria, he operated from a factory at Victoria Avenue, Albert Park, until about 1911, then from Yarra Bank Road in South Melbourne. Newspaper offices were appointed as agencies to sell his inks, for example, in 1904 the New Zealand Evening Star sold Caldwell’s Flo-Eesi blue black ink in various bottle sizes, and Murchison Advocate (Victoria) stocked Caldwell’s ink in crimson, green, blue black, violet, and blue. Caldwell’s ink was stated to be “non-corrosive and unaffected by steel pens”. A motto used in advertising in 1904-1908 reads ‘Makes Writing a Pleasure’. Stationers stocked Caldwell’s products and hawkers sold Caldwell’s ink stands from door to door in Sydney in the 1910s and 1920s. In 1911 Caldwell promised cash for returned ink bottles and warned of prosecution for anyone found refilling his bottles. Caldwell’s Ink Stands were given as gifts. The company encouraged all forms of writing with their Australian-made Flo-Eesi writing inks and bottles at their impressive booth in the ‘All Australian Exhibition’ in 1913. It advertised its other products, which included Caldwell’s Gum, Caldwell’s Stencil Ink (copy ink) and Caldwell’s Quicksticker as well as Caldwell’s ‘Zac’ Cough Mixture. Caldwell stated in a 1920 article that his inks were made from a formula that was over a century old, and were scientifically tested and quality controlled. The formula included gallic and tannic acids and high-quality dyes to ensure that they did not fade. They were “free from all injurious chemicals”. The permanent quality of the ink was important for legal reasons, particularly to banks, accountants, commerce, municipal councils and lawyers. The Caldwell’s Ink Company also exported crates of its ink bottles and ink stands overseas. Newspaper advertisements can be found for Caldwell’s Ink Company up until 1934 when the company said they were the Best in the business for 40 years.This large collection of similar ink bottles is of particular significance as the bottles have come from the same source, most have their original corks and some retain their original labels, which is rare. The method of manufacture of these bottles is also representative of a 19th-century handcraft industry that is now been largely replaced by mass production. The bottles and their contents are of state significance for being produced by an early Melbourne industry and exported overseas. This case of ink bottles is historically significant as it represents methods of handwritten communication that were still common up until the mid-20th century when fountain pens and modern ballpoint pens became popular and convenient and typewriters were becoming part of standard office equipment.Ink bottles in a wooden crate; 70 rectangular, hand-blown clear glass ink bottles. They have side seams, uneven thickness, especially at the bases, and rough, burst-off mouths. The shoulders on the long sides have horizontal grooves used for pen rests. The bottles vary; some have labels, some contain remnants of blue-black ink, and many have their original corks. The glass has bubbles and imperfections. The remnants of printed labels are on white paper with a swirly border and black text. The bottles contained Caldwell’s blend of blue black ‘Flo-Eesi’ ink.Printed on label; “CALDWELL FLO-EESI BLUE BLACK INK” “ - - - - “ Printed script signature “F.R. Caldwell”flagstaff hill, warrnambool, maritime village, maritime museum, shipwreck coast, great ocean road, ink, nib pen, writing ink, writing, copying, banks, lawyers, commerce, student, permanent ink, flo-eesi, blue black ink, stationery, record keeping, handwriting, writing equipment, writing accessory, office supply, cottage bottle, boat bottle, mouth-blown bottle, two-part mould, sheer-lip bottle, burst-lip, cork seal, f r caldwell, caldwell’s ink company, albert park, south melbourne, inkstands, stencil ink, copy ink, quicksticker, zac cough mixture

This design of the bottle is sometimes called a ‘cottage’ or ‘boat’ shape. The Caldwell’s handmade glass ink bottle was mouth-blown into a three-piece mould, a method often used in the late 19th and early 20th centuries, with the maker's name engraved into the mould section for the base. The glass blower would cut the bottle off the end of his blowpipe with a tool and join a mouth onto the top, rolling the lip. The bottle was then filled with ink and sealed with a cork. This method of manufacture was more time-consuming and costly to produce than those made in a simple two-piece mould and 'cracked' off the blowpipe. The capacity for a bottle such as this was about 3 ½ oz (ounces) equal to about 100 ml. This particular bottle is unusual as it has four sloping indents at the corners of the shoulder, most likely for resting a pen with its nib upwards and the handle resting on a flat surface. Most of the bottles made during this era had horizontal pen rests that were indented into both of the long sides of the shoulder. Pen and ink have been in use for handwriting since about the seventh century. A quill pen made from a bird’s feather was used up until around the mid-19th century. In the 1850s a steel point nib for the dip pen was invented and could be manufactured on machines in large quantities. This only held a small amount of ink so users had to frequently dip the nib into an ink well for more ink. Handwriting left wet ink on the paper, so the blotting paper was carefully used to absorb the excess ink and prevent smudging. Ink could be purchased as a ready-to-use liquid or in powdered form, which needed to be mixed with water. In the 1880s a successful, portable fountain pen gave smooth-flowing ink and was easy to use. In the mid-20th century, the modern ballpoint pen was readily available and inexpensive, so the fountain pen lost its popularity. However, artisans continue to use nib pens to create beautiful calligraphy. Caldwell’s Ink Co. – F.R. Caldwell established Caldwell’s Ink Company in Australia around 1902. In Victoria, he operated from a factory at Victoria Avenue, Albert Park, until about 1911, then from Yarra Bank Road in South Melbourne. Newspaper offices were appointed as agencies to sell his inks, for example, in 1904 the New Zealand Evening Star sold Caldwell’s Flo-Eesi blue black ink in various bottle sizes, and Murchison Advocate (Victoria) stocked Caldwell’s ink in crimson, green, blue black, violet, and blue. Caldwell’s ink was stated to be “non-corrosive and unaffected by steel pens”. A motto used in advertising in 1904-1908 reads ‘Makes Writing a Pleasure’. Stationers stocked Caldwell’s products and hawkers sold Caldwell’s ink stands from door to door in Sydney in the 1910s and 1920s. In 1911 Caldwell promised cash for returned ink bottles and warned of prosecution for anyone found refilling his bottles. Caldwell’s Ink Stands were given as gifts. The company encouraged all forms of writing with their Australian-made Flo-Eesi writing inks and bottles at their impressive booth in the ‘All Australian Exhibition’ in 1913. It advertised its other products, which included Caldwell’s Gum, Caldwell’s Stencil Ink (copy ink) and Caldwell’s Quicksticker as well as Caldwell’s ‘Zac’ Cough Mixture. Caldwell stated in a 1920 article that his inks were made from a formula that was over a century old, and were scientifically tested and quality controlled. The formula included gallic and tannic acids and high-quality dyes to ensure that they did not fade. They were “free from all injurious chemicals”. The permanent quality of the ink was important for legal reasons, particularly to banks, accountants, commerce, municipal councils and lawyers. The Caldwell’s Ink Company also exported crates of its ink bottles and ink stands overseas. Newspaper advertisements can be found for Caldwell’s Ink Company up until 1934 when the company said they were the Best in the business for 40 years.This hand-blown bottle is significant for being the only bottle in our collection with the unusual sloping pen rests on its shoulder. It is also significant for being made in a less common three-piece mould. The method of manufacture is representative of a 19th-century handcraft industry that is now been largely replaced by mass production. The bottle is of state significance for being produced by an early Melbourne industry and exported overseas. This ink bottle is historically significant as it represents methods of handwritten communication that were still common up until the mid-20th century when fountain pens and modern ballpoint pens became popular and convenient and typewriters were becoming part of standard office equipment.Ink bottle; rectangular base, hand-blown clear glass bottle with its own cork. The bottle has side seams from the base to the mouth, an indented base and an applied lip. The corners of the shoulder sides have unusual diagonal grooves that slope down and outwards that may have been used as pen rests. Inside the bottle are remnants of dried blue-black ink. The glass has imperfections and some ripples on the surface. The bottle has an attached oval black label label with gold-brown printed text and border. The base has an embossed inscription. The bottles once contained Caldwell’s blend of blue black ink.Printed on label; “CALDWELL's BLUE BLACK INK” Embossed on the base "CALDWELLS"flagstaff hill, warrnambool, maritime village, maritime museum, shipwreck coast, great ocean road, ink, nib pen, writing ink, writing, copying, banks, lawyers, commerce, student, permanent ink, blue black ink, stationery, record keeping, handwriting, writing equipment, writing accessory, office supply, cottage bottle, boat bottle, mouth-blown bottle, cork seal, f r caldwell, caldwell’s ink company, albert park, south melbourne, inkstands, stencil ink, copy ink, quicksticker, zac cough mixture, three part mould, cauldwells, cauldwell's

Although the Kiewa Hydro-Electric Scheme was first proposed in 1911, construction did not commence until 1938. As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) initiated the conversion from primarily brown coal supply to hydro – electricity. Field investigations during the 1940’s resulted in a new proposal for a scheme that had more than double the capacity of the 1938 scheme. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. The number of personnel involved in the planning and construction of the scheme increased dramatically. During the late 1940’s, most activity centred around the construction of the West Kiewa Power Station, Rocky Valley Reservoir, McKay Creek Power Station and the Bogong Creek Aqueduct.A common thread across all the larger hydro scheme constructions was the need for workers, both qualified and unqualified who came from around the world seeking a new life for themselves and their families. New accommodation and facilities were required for the army of workers engaged in construction in often remote and wild areas. The SEC had a high demand for timber, and set up the first of a number of sawmills at Bogong Creek in 1939 and set up the first hardwood logging in the headwaters of the Kiewa River. These new ‘towns’ such as Mt Beauty and Bogong, survived, serving the needs of operational personnel and their families, and expanding with growth of new industries. Mount Beauty, and to a lesser extent Bogong, are among these places. Large A3 size spiral bound display folder containing 21 of 58 pages of photocopied black and white photographs of various aspects of the early days of the Kiewa Valley Hydro-electric scheme including equipment, various work sites and photographs of workers and their families. 1-Front page; 2-Security gate at Mt Beauty Camp; 3-Channel 1 on East Kiewa River; 4-Junction Dam – Diversion Tunnel Inlet; 5-Sawmill; 6- Homan’s Gap Sawmill; 7 Junction Dam: 8-Homan Dam Site-Diamond Drilling on River Buttress; 9- Homan Dam Site View Upstream 10-Homan Dam Investigation Camp 1-Windsor & Newton Visual Diary 60 sheet (120 pages) 11’ x 14’ 280 x 356mm 110 GSM Acid Free Drawing Paper 2-1940-Security Gate on Mt Beauty side of Kiewa River bridge. Part of old Mt Beauty camp and mess in background 3- STATE ELECTRICITY COMMISSION OF VICTORIA Date; 11.3.40 Time: 10.30am No K35 Kiewa Hydro Electric Works. Diverting East Kiewa River into Channel Page number 1 4-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 5.4.40 Time: Noon No K58 Kiewa Hydro Electric Works. Junction Dam – Diversion Tunnel Inlet – Normal Flow Page number 2 5- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 19.8.42 Time: 2.30pm No K883 Kiewa Hydro Electric Works. Sawmill – General View Page number 3 6- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 12.1.42 Time: 2.00pm No K540 Kiewa Hydro Electric Works. Homan’s Gap Sawmill – General View Page number 4 7- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 12.1.42 Time: 2.00pm No K540 Kiewa Hydro Electric Works. Junction Dam – General View looking upstream Page number 5 8- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 16.11.45 Time: 10.32amm No K52153 Kiewa Hydro Electric Works Homan Dam Site – Diamond Drilling on River Buttress Page number 6 9-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 15.1.45 Time: 4.10pm No K1781 Kiewa Hydro Electric Works Homan Dam Site – View Upstream Page number 7 10- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 15.1.45 Time: 4.10pm No K1781 Kiewa Hydro Electric Works Homan Dam Investigation Camp 1944 – 1945 Page number 8 secv; kiewa hydro electric scheme; mt beauty; bogong; construction work;

150 years of experience and commitment. Norwegians have been producing and exporting cod liver oil for more than 1000 years. But it was not before 1645 it was reported that cod liver oil could be used to prevent and cure disease. At the end of the 18th century the first scientific article was published to support this. In the middle of the 19th century, the pharmacist Peter Möller observed that people along the west coast of Norway consuming cod liver oil regularly were rarely ill. He dedicated himself to finding out how this healthy liquid could be produced with better taste and pureness at a lower price. He developed a method of using steam to extract the oil from fresh cod livers. Based on this technological advance, the company Peter Möller was founded in 1854 in Lofoten on Norway’s arctic coast, where you find pure, cold, clean seas and high quality raw material. Peter Joachim Möller (1793-1869) At first Möller’s Cod Liver Oil was believed to be a good source of vitamin D and A, and the health benefits were associated with these vitamins. Peter Möller believed, however, that there were other significant benefits from fatty acids and other ingredients in the cod liver oil – both known and unknown. Peter Möller was dedicated to understanding more about these benefits. His dedication and commitment is clear in Möller's vision to improve people’s health by delivering the highest quality omega 3 products. Timeline 1793 Peter Möller is born in Røros, Norway 26 April. 1819 Peter Möller travels to Christiania (Oslo) and is employed by the pharmacist Frantz Peckel at the Svane chemist. He is employed on condition that he passes his pharmaceutical exam within one year. 1822 Graduated as a pharmacist with a unanimous first grade and with the award of the Professor's special satisfaction. 1842 Together with professors A. Holst and Chr. Boeck, Peter Möller participates in the commission which develops the first Norwegian Pharmacopoeia. 1853 Peter announces his method to cod liver oil works along the coast. He equips cod liver oil factories with new equipment in Lofoten, Ålesund and Kristiansund. The facility outside Ålesund is the most important for testing the method. 1854 The Peter Möller company is established as production has started at the three factories. Sales are lower than anticipated even though the quality is considerably better with the new method. The consumers of cod liver oil had been used to the fact that “good medicine must taste bad” and would not believe that the new and better quality was as healthy. Therefore, the following years are used to introduce consumers to the product, and also to convert more producers to the new method. 1869 Peter Möller dies. There are 70 cod liver oil steamers which use his steam rendering method, and 5000 barrels are produced every year. Möller’s company increases the quality by better routines for quality controls. 1870 Severin A Heyerdal, Möller’s son-in-law, assumes the leadership of the firm after Peter's death. He continues the work by improving the quality of the cod liver oil. The goal was to make it as pure and unaltered as in the liver. At this time, Möller had already started selling its product in the USA. In 1870, WH Schieffelin & Co. ("The oldest drughouse in America") was engaged by Peter Möller in the USA. 1881 Frantz Peckel Möller assumes the leadership of the Peter Möller company. He saw it as his duty to further the work on cod liver oil, and through a combination of solid scientific education and an eminent sense of the great mercantile possibilities, he made Möller’s cod liver oil the number one in the world market. 1914 The first world war leads to Möller’s bottled cod liver oil being shut out of the export market. However, domestic sales are good. 1924 The subsidiary Møystad Möller & Co. is established for bulk exports and the Association of Medicinal Cod liver oil Exporters is established in Bergen in 1925. 1925/26 The green bottles are introduced. Medicinal cod liver oil exports remain almost constant, while total Norwegian cod liver oil exports increase. 1938 The factory on the Løren grounds in Oslo, Norway is built. The factory is in the same place today. Peter Möller’s Pharmaceutical Laboratorium A/S is also established to separate out the scientific business. Investment is made in a new facility for refining and bottling veterinary cod liver oil, and increased production of industrial cod liver oil. 1940 The outbreak of the 2nd world war sees exports fall dramatically, while cod liver oil’s significance as a dietary supplement receives increased attention. Domestic sales increase strongly. 1945 After the war, medicinal cod liver oil retains its high status as an important dietary supplement in the “rebuilding" of the country. Cod liver oil becomes an ”emergency product in ravaged areas where the supply situation is difficult. Competition from other countries such as the USA, England and Iceland increases, and Norway no longer dominates the market. 1983 Möller’s cod liver oil in capsule form is launched and palatable cod liver oil is launched. 1990 Peter Möller A/S merges with Orkla Borregaard A/S (now ORKLA) 2005 Peter Möller merges with CollettPharma. The new company is called MöllerCollett. 2007 Merger between MöllerCollet and DanskDroge. The new company is called Axellus. Oval in section with a thin neck, mauve tinted clear glass bottle with text embossed on side.On side : 'P.MOLLER', 'OL JECOR', 'GADOR VER', 'CHRISTIANIA'.cod liver oil, norway, peter moller, christiana, oslo

THE DISCOVERY OF STAINLESS STEEL Harry Brearley Since the dawn of man colonies have raced against each other to uncover new technologies, to be the first to stamp their names on a discovery, and although we’ve evolved over millions of years, the urge to be the first remains at the very core of our nature. This sense of passion and pride can lead some of the more unscrupulous humans to claim others discoveries as their own. Of course many breakthroughs are genuinely made in tandem, or are simultaneously occurring, but unless you can categorically prove that you were the pioneer of these incredible findings, then the other party involved will always dispute the fact. And so we come to stainless steel. The first point to note is that ‘inventor’ is a very ambiguous term. Is this the first person to think, to document, to patent, or to produce? The second point is that stainless steel wasn’t truly defined until 1911, so are we to cast aside those chromium-iron alloys that don’t quite meet the minimum requirement of 10.5% chromium? It seems like anyone and everyone has a different claim to being labelled the ‘inventor’ of stainless steel; from Britain, Germany, France, Poland, the U.S.A., and even Sweden. The cogs were set in motion by Englishmen Stoddart and Faraday circa 1820 and Frenchman Pierre Berthier in 1821. These scientists, among others, noted that iron-chromium alloys were more resistant to attack by certain acids, but tests were only carried out on low chromium content alloys. Attempts to produce higher chromium alloys failed primarily because of scientists not understanding the importance of low carbon content. In 1872 another pair of Englishmen, Woods and Clark, filed for patent of an acid and weather resistant iron alloy containing 30-35% chromium and 2% tungsten, effectively the first ever patent on what would now be considered a stainless steel. However, the real development came in 1875 when a Frenchman named Brustlein detailed the importance of low carbon content in successfully making stainless steel. Brustlein pointed out that in order to create an alloy with a high percentage of chromium, the carbon content must remain below around 0.15%. Thus ensued two decades of stagnation for the development of stainless steel, and while many scientists attempted to create a low carbon stainless steel, none succeeded. Hans Goldschmidt It wasn’t until 1895, when Hans Goldschmidt of Germany developed the aluminothermic reduction process for producing carbon-free chromium, that development of stainless steels became a reality. In 1904 French Scientist Leon Guillet undertook extensive research on many iron-chromium alloys. Guillet’s work included studies on the composition of what would now be known as 410, 420, 442, 446 and 440-C. In 1906 Guillet went on to analyse iron-nickel-chrome alloys, which would now be considered the basics of the 300 series. However, while noting the chemical composition of his alloys, Guillet failed to acknowledge the potential corrosion resistance of his materials. Albert Portevin In 1909 Englishman Giesen published an in-depth work regarding chromium-nickel steels, while the French national, Portevin, studied what is now regarded as 430 stainless steel. However, it wasn’t until 1911 that the importance of a minimum chromium content was discovered by Germans P. Monnartz and W. Borchers. Monnartz and Borchers discovered the correlation between chromium content and corrosion resistance, stating that there was a significant boost in corrosion resistance when at least 10.5% chromium was present. The pair also published detailed works on the effects of molybdenum on corrosion resistance. It is at this point we introduce Harry Brearley, born in Sheffield, England in 1871, he was appointed lead researcher at Brown Firth Laboratories in 1908. In 1912 Brearley was given a task by a small arms manufacturer who wished to prolong the life of their gun barrels which were eroding away too quickly. Brearley set out to create an erosion resistant steel, not a corrosion resistant one, and began experimenting with steel alloys containing chromium. During these experiments Brearley made several variations of his alloys, ranging from 6% to 15% chromium with differing levels of carbon. On the 13th August 1913 Brearley created a steel with 12.8% chromium and 0.24% carbon, argued to be the first ever stainless steel. The circumstances in which Brearley discovered stainless steel are covered in myth; some enchanted tales of Brearley recite him tossing his steel into the rubbish, only to notice later that the steel hadn’t rusted to the extent of its counterparts, much like Alexander Fleming’s experience 15 years later. Other more plausible, (but less attractive), accounts claim it was necessary for Brearley to etch his steels with nitric acid and examine them under a microscope in order to analyse their potential resistance to chemical attack. Brearley found that his new steel resisted these chemical attacks and proceeded to test the sample with other agents, including lemon juice and vinegar. Brearley was astounded to find that his alloys were still highly resistant, and immediately recognised the potential for his steel within the cutlery industry. The Half Moon Brearley struggled to win the support of his employers, instead choosing to produce his new steel at local cutler R. F. Mosley. He found difficulty producing knife blades in the new steel that did not rust or stain and turned to his old school friend, Ernest Stuart, Cutlery Manager at Mosley’s Portland Works, for help. Within 3 weeks, Stuart had perfected the hardening process for knives. Brearley had initially decided to name his invention ‘Rustless Steel’, but Stuart, dubbed it ‘Stainless Steel’ after testing the material in a vinegar solution, and the name stuck. And that’s how Harry Brearley discovered stainless steel…. well, not quite… During the 5 year period between 1908 and Brearley’s discovery in 1913 many other scientists and metallurgists have potential claims to Brearley’s title. In 1908 the Germans entered the fray, the Krupp Iron Works in Germany produced a chrome-nickel steel for the hull of the Germania yacht. The Half Moon, as the yacht is now known, has a rich history and currently lies on the seabed off the east coast of Florida. Whether the steel contains the minimum 10.5% chromium content remains inconclusive. Employees of the Krupp works, Eduard Maurer and Benno Strauss, also worked from 1912-1914 on developing austenitic steels using <1% carbon, <20% nickel and 15-40% chromium. Not happy with Europe hogging the glory, the USA got in on the act. Firstly, Elwood Haynes, after becoming disenchanted at his rusty razor, set out to create a corrosion resistant steel, which he supposedly succeeded in doing during 1911. Two other Americans, Becket and Dantsizen, worked on ferritic stainless steels, containing 14-16% chromium and 0.07-0.15% carbon, in the years 1911-1914. Elwood Haynes During 1912 Max Mauermann of Poland is rumoured to have created the first stainless steel, which he later presented to the public during the Adria exhibition in Vienna, 1913. Finally, a recently discovered article, which was published in a Swedish hunting and fishing magazine in 1913, discusses a steel used for gun barrels, (sound familiar?), which seems to resemble stainless steel. Although this is purely speculation, the Swedes have still made an audacious claim that they were in fact responsible for the first practical application for stainless steel. That concludes the shambolic discovery of stainless steel! Although there is much mystery and speculation behind the discovery of this wonderful material, there is no question that without the combined effort of all the above scientists and metallurgists, (and all the many more that were not mentioned), we would not have such a rich and versatile metal at our fingertips. https://bssa.org.uk/bssa_articles/the-discovery-of-stainless-steel/#:~:text=On%20the%2013th%20August%201913,the%20first%20ever%20stainless%20steel. This stainless steel container was donated to Flagstaff Hill Maritime Village by the family of Doctor William Roy Angus, Surgeon and Oculist. It is part of the “W.R. Angus Collection” that includes historical medical equipment, surgical instruments and material once belonging to Dr Edward Ryan and Dr Thomas Francis Ryan, (both of Nhill, Victoria) as well as Dr Angus’ own belongings. The Collection’s history spans the medical practices of the two Doctors Ryan, from 1885-1926 plus that of Dr Angus, up until 1969. ABOUT THE “W.R.ANGUS COLLECTION” Doctor William Roy Angus M.B., B.S., Adel., 1923, F.R.C.S. Edin.,1928 (also known as Dr Roy Angus) was born in Murrumbeena, Victoria in 1901 and lived until 1970. He qualified as a doctor in 1923 at University of Adelaide, was Resident Medical Officer at the Royal Adelaide Hospital in 1924 and for a period was house surgeon to Sir (then Mr.) Henry Simpson Newland. Dr Angus was briefly an Assistant to Dr Riddell of Kapunda, then commenced private practice at Curramulka, Yorke Peninsula, SA, where he was physician, surgeon and chemist. In 1926, he was appointed as new Medical Assistant to Dr Thomas Francis Ryan (T.F. Ryan, or Tom), in Nhill, Victoria, where his experiences included radiology and pharmacy. In 1927 he was Acting House Surgeon in Dr Tom Ryan’s absence. Dr Angus had become engaged to Gladys Forsyth and they decided he would take time to further his studies overseas in the UK in 1927. He studied at London University College Hospital and at Edinburgh Royal Infirmary and in 1928, was awarded FRCS (Fellow from the Royal College of Surgeons), Edinburgh. He worked his passage back to Australia as a Ship’s Surgeon on the on the Australian Commonwealth Line’s T.S.S. Largs Bay. Dr Angus married Gladys in 1929, in Ballarat. (They went on to have one son (Graham 1932, born in SA) and two daughters (Helen (died 12/07/1996) and Berenice (Berry), both born at Mira, Nhill ) Dr Angus was a ‘flying doctor’ for the A.I.M. (Australian Inland Ministry) Aerial Medical Service in 1928 . The organisation began in South Australia through the Presbyterian Church in that year, with its first station being in the remote town of Oodnadatta, where Dr Angus was stationed. He was locum tenens there on North-South Railway at 21 Mile Camp. He took up this ‘flying doctor’ position in response to a call from Dr John Flynn; the organisation was later known as the Flying Doctor Service, then the Royal Flying Doctor Service. A lot of his work during this time involved dental surgery also. Between 1928-1932 he was surgeon at the Curramulka Hospital, Yorke Peninsula, South Australia. In 1933 Dr Angus returned to Nhill where he’d previously worked as Medical Assistant and purchased a share of the Nelson Street practice and Mira hospital from Dr Les Middleton one of the Middleton Brothers, the current owners of what was once Dr Tom Ryan’s practice. Dr L Middleton was House Surgeon to the Nhill Hospital 1926-1933, when he resigned. [Dr Tom Ryan’s practice had originally belonged to his older brother Dr Edward Ryan, who came to Nhill in 1885. Dr Edward saw patients at his rooms, firstly in Victoria Street and in 1886 in Nelson Street, until 1901. The Nelson Street practice also had a 2 bed ward, called Mira Private Hospital ). Dr Edward Ryan was House Surgeon at the Nhill Hospital 1884-1902 . He also had occasions where he successfully performed veterinary surgery for the local farmers too. Dr Tom Ryan then purchased the practice from his brother in 1901. Both Dr Edward and Dr Tom Ryan work as surgeons included eye surgery. Dr Tom Ryan performed many of his operations in the Mira private hospital on his premises. He too was House Surgeon at the Nhill Hospital 1902-1926. Dr Tom Ryan had one of the only two pieces of radiology equipment in Victoria during his practicing years – The Royal Melbourne Hospital had the other one. Over the years Dr Tom Ryan gradually set up what was effectively a training school for country general-practitioner-surgeons. Each patient was carefully examined, including using the X-ray machine, and any surgery was discussed and planned with Dr Ryan’s assistants several days in advance. Dr Angus gained experience in using the X-ray machine there during his time as assistant to Dr Ryan. Dr Tom Ryan moved from Nhill in 1926. He became a Fellow of the Royal Australasian College of Surgeons in 1927, soon after its formation, a rare accolade for a doctor outside any of the major cities. He remained a bachelor and died suddenly on 7th Dec 1955, aged 91, at his home in Ararat. Scholarships and prizes are still awarded to medical students in the honour of Dr T.F. Ryan and his father, Dr Michael Ryan, and brother, John Patrick Ryan. ] When Dr Angus bought into the Nelson Street premises in Nhill he was also appointed as the Nhill Hospital’s Honorary House Surgeon 1933-1938. His practitioner’s plate from his Nhill surgery states “HOURS Daily, except Tuesdays, Fridays and Saturday afternoons, 9-10am, 2-4pm, 7-8pm. Sundays by appointment”. This plate is now mounted on the doorway to the Port Medical Office at Flagstaff Hill Maritime Village, Warrnambool. Dr Edward Ryan and Dr Tom Ryan had an extensive collection of historical medical equipment and materials spanning 1884-1926 and when Dr Angus took up practice in their old premises he obtained this collection, a large part of which is now on display at the Port Medical Office at Flagstaff Hill Maritime Village in Warrnambool. During his time in Nhill Dr Angus was involved in the merging of the Mira Hospital and Nhill Public Hospital into one public hospital and the property titles passed on to Nhill Hospital in 1939. In 1939 Dr Angus and his family moved to Warrnambool where he purchased “Birchwood,” the 1852 home and medical practice of Dr John Hunter Henderson, at 214 Koroit Street. (This property was sold in1965 to the State Government and is now the site of the Warrnambool Police Station. ). The Angus family was able to afford gardeners, cooks and maids; their home was a popular place for visiting dignitaries to stay whilst visiting Warrnambool. Dr Angus had his own silk worm farm at home in a Mulberry tree. His young daughter used his centrifuge for spinning the silk. Dr Angus was appointed on a part-time basis as Port Medical Officer (Health Officer) in Warrnambool and held this position until the 1940’s when the government no longer required the service of a Port Medical Officer in Warrnambool; he was thus Warrnambool’s last serving Port Medical Officer. (The duties of a Port Medical Officer were outlined by the Colonial Secretary on 21st June, 1839 under the terms of the Quarantine Act. Masters of immigrant ships arriving in port reported incidents of diseases, illness and death and the Port Medical Officer made a decision on whether the ship required Quarantine and for how long, in this way preventing contagious illness from spreading from new immigrants to the residents already in the colony.) Dr Angus was a member of the Australian Medical Association, for 35 years and surgeon at the Warrnambool Base Hospital 1939-1942, He served as a Surgeon Captain during WWII1942-45, in Ballarat, Victoria, and in Bonegilla, N.S.W., completing his service just before the end of the war due to suffering from a heart attack. During his convalescence he carved an intricate and ‘most artistic’ chess set from the material that dentures were made from. He then studied ophthalmology at the Royal Melbourne Eye and Ear Hospital and created cosmetically superior artificial eyes by pioneering using the intrascleral cartilage. Angus received accolades from the Ophthalmological Society of Australasia for this work. He returned to Warrnambool to commence practice as an ophthalmologist, pioneering in artificial eye improvements. He was Honorary Consultant Ophthalmologist to Warrnambool Base Hospital for 31 years. He made monthly visits to Portland as a visiting surgeon, to perform eye surgery. He represented the Victorian South-West subdivision of the Australian Medical Association as its secretary between 1949 and 1956 and as chairman from 1956 to 1958. In 1968 Dr Angus was elected member of Spain’s Barraquer Institute of Barcelona after his research work in Intrasclearal cartilage grafting, becoming one of the few Australian ophthalmologists to receive this honour, and in the following year presented his final paper on Living Intrasclearal Cartilage Implants at the Inaugural Meeting of the Australian College of Ophthalmologists in Melbourne In his personal life Dr Angus was a Presbyterian and treated Sunday as a Sabbath, a day of rest. He would visit 3 or 4 country patients on a Sunday, taking his children along ‘for the ride’ and to visit with him. Sunday evenings he would play the pianola and sing Scottish songs to his family. One of Dr Angus’ patients was Margaret MacKenzie, author of a book on local shipwrecks that she’d seen as an eye witness from the late 1880’s in Peterborough, Victoria. In the early 1950’s Dr Angus, painted a picture of a shipwreck for the cover jacket of Margaret’s book, Shipwrecks and More Shipwrecks. She was blind in later life and her daughter wrote the actual book for her. Dr Angus and his wife Gladys were very involved in Warrnambool’s society with a strong interest in civic affairs. Their interests included organisations such as Red Cross, Rostrum, Warrnambool and District Historical Society (founding members), Wine and Food Society, Steering Committee for Tertiary Education in Warrnambool, Local National Trust, Good Neighbour Council, Housing Commission Advisory Board, United Services Institute, Legion of Ex-Servicemen, Olympic Pool Committee, Food for Britain Organisation, Warrnambool Hospital, Anti-Cancer Council, Boys’ Club, Charitable Council, National Fitness Council and Air Raid Precautions Group. He was also a member of the Steam Preservation Society and derived much pleasure from a steam traction engine on his farm. He had an interest in people and the community He and his wife Gladys were both involved in the creation of Flagstaff Hill, including the layout of the gardens. After his death (28th March 1970) his family requested his practitioner’s plate, medical instruments and some personal belongings be displayed in the Port Medical Office surgery at Flagstaff Hill Maritime Village, and be called the “W. R. Angus Collection”. The W.R. Angus Collection is significant for still being located at the site it is connected with, Doctor Angus being the last Port Medical Officer in Warrnambool. The collection of medical instruments and other equipment is culturally significant, being an historical example of medicine from late 19th to mid-20th century. Dr Angus assisted Dr Tom Ryan, a pioneer in the use of X-rays and in ocular surgery. Medical box; rectangular stainless steel base and separate lid, from the W.R. Angus Collection.warrnambool, flagstaff hill maritime museum, great ocean road, dr w r angus, dr ryan, surgical instrument, t.s.s. largs bay, warrnambool base hospital, nhill base hospital, mira hospital, flying doctor, medical treatment, stainless steel medical container, medical container, stainless steel

The artefact is the lower portion of a rectangular shanked ‘planking nail’ with a straight-edged ‘flat point’. The distinctive ‘point’ of a planking/skirting nail was designed to be driven into timber across the grain in order to prevent the wood from splitting. This relic is from the shipwreck of the SCHOMBERG, which ran aground near Peterborough in 1855. It was retrieved in 1875 from a large section of the ship’s bow which had been carried by ocean currents to the western coast of New Zealand’s South Island. The nail is still fixed in a fragment of the original timber that it secured in the SCHOMBERG. The top portion, or ‘head’ of the nail, has corroded away but the pronounced rectangular shank and its flat point indicate its likely purpose and position on the vessel. Most fastenings used in sailing ship construction were either wooden treenails or copper bolts, which were relatively resistant to seawater corrosion. In addition, the preferred hull-frame timber of British Oak has a high content of gallic acid which rapidly corrodes unprotected iron work. The ferrous composition of this planking nail suggests it came from an internal and upper portion of the ship’s bow (protected from exposure to the sea or oak). According to an 1855 edition of the Aberdeen Journal, the five outer layers, or ‘skins’, of the SCHOMBERG’s pine hull were “combined by means of patent screw treenails”. However the “beams of her two upper decks” were of “malleable iron”, and “part of the forecastle” was “fitted for the accommodation of the crew”. It is therefore possible that iron nails of this description were used by the ship’s builders to secure floor and wall planks in enclosed areas of the crew’s quarters. (The same reasoning would apply to officer and passenger accommodation amidships and at the stern of the vessel, but it was the bow that floated to New.Zealand.) The SCHOMBERG was a 2,000 ton clipper ship, specifically designed for the Australian immigration trade (back-loading wool for Britain’s mills), and constructed in Hall’s shipyard in Aberdeen, Scotland. She was owned by the Black Ball Line and launched in 1855. Alexander Hall & Son were renowned builders of sleek and fast 1,000 ton clippers for the China trade (opium in, tea out) and were keen to show they could also outclass the big North American ships built by Donald Mackay. Consequently the SCHOMBERG was ‘overbuilt’. Her hull featured five ‘skins’ of Scotch Larch and Pitch Pine overlaying each other in a diagonal pattern against a stout frame of British Oak. Oak has been favoured by builders of wooden ships for centuries. Its close, dense grain made it harder to work, but also gave it great strength and durability. In addition, the lateral spread of its branches supplied a natural curvature for the ribs of a vessel’s hull, as well as providing the small corner or curved pieces (‘knees’ and ‘elbows’) that fit them together. At the launch the SCHOMBERG’s 34 year old master, Captain ‘Bully’ Forbes, had promised Melbourne in 60 days, "with or without the help of God." James Nicol Forbes was born in Aberdeen in 1821 and rose to fame with his record-breaking voyages on the famous Black Ball Line ships; MARCO POLO and LIGHTNING. In 1852 in the MARCO POLO he made the record passage from London to Melbourne in 68 days. There were 53 deaths on the voyage but the great news was of the record passage by the master. In 1954 Captain Forbes took the clipper LIGHTNING to Melbourne in 76 days and back in 63 days, this was never beaten by a sailing ship. He often drove his crew and ship to breaking point to beat his own records. He cared little for the comfort of the passengers. On this, the SCHOMBERG’s maiden voyage, he was going to break records. SCHOMBERG departed Liverpool on her maiden voyage on 6 October 1855 flying the sign “Sixty Days to Melbourne”. She departed with 430 passengers and 3000 tons cargo including iron rails and equipment intended to build the Melbourne to Geelong Railway and a bridge over the Yarra from Melbourne to Hawthorn. She also carried a cow for fresh milk, pens for fowls and pigs, 90,000 gallons of water for washing and drinking. It also carried 17,000 letters and 31,800 newspapers. The ship and cargo was insured for $300,000, a fortune for the time. The winds were poor as she sailed across the equator, slowing SCHOMBERG’s journey considerably. Land was first sighted on Christmas Day, at Cape Bridgewater near Portland, and Captain Forbes followed the coastline towards Melbourne. Forbes was said to be playing cards when called by the Third Mate Henry Keen, who reported land about 3 miles off, Due in large part to the captain's regarding a card game as more important than his ship, it eventually ran aground on a sand spit near Curdie's Inlet (about 56 km west of Cape Otway) on 26 December 1855, 78 days after leaving Liverpool. The sand spit and the currents were not marked on Forbes’s map. Overnight, the crew launched a lifeboat to find a safe place to land the ship’s passengers. The scouting party returned to SCHOMBERG and advised Forbes that it was best to wait until morning because the rough seas could easily overturn the small lifeboats. The ship’s Chief Officer spotted SS QUEEN at dawn and signalled the steamer. The master of the SS QUEEN approached the stranded vessel and all of SCHOMBERG’s passengers and crew were able to disembark safely. The SCHOMBERG was lost and with her, Forbes’ reputation. The Black Ball Line’s Melbourne agent sent a steamer to retrieve the passengers’ baggage from the SCHOMBERG. Other steamers helped unload her cargo until the weather changed and prevented the salvage teams from accessing the ship. Later one plunderer found a case of Wellington boots, but alas, all were for the left foot! Local merchants Manifold & Bostock bought the wreck and cargo, but did not attempt to salvage the cargo still on board the ship. They eventually sold it on to a Melbourne businessman and two seafarers. In 1864 after two of the men drowned when they tried to reach SCHOMBERG, salvage efforts were abandoned. Parts of the SCHOMBERG were washed ashore on the south island of New Zealand in 1870, nearly 15 years after the wreck. The wreck now lies in 825 metres of water. Although the woodwork is mostly disintegrated the shape of the ship can still be seen due to the remaining railway irons, girders and the ship’s frame. A variety of goods and materials can be seen scattered about nearby. Flagstaff Hill holds many items salvaged from the SCHOMBERG including a ciborium (in which a diamond ring was concealed), communion set, ship fittings and equipment, personal effects, a lithograph, tickets and photograph from the SCHOMBERG. One of the SCHOMBERG bells is in the Warrnambool Library. This nail is a registered artefact from the wreck of the SCHOMBERG, Artefact Reg No S/35 and is significant because of its association with the SCHOMBERG. The SCHOMBERG collection as a whole is of historical and archaeological significance at a State level, listed on the Victorian Heritage Register VHR S612. Flagstaff Hill’s collection of artefacts from the SCHOMBERG is significant for its association with the Victorian Heritage Registered shipwreck. The collection is primarily significant because of the relationship between the objects, as together they have a high potential to interpret the story of the SCHOMBERG. The SCHOMBERG collection is archaeologically significant as the remains of an international passenger ship. The shipwreck collection is historically significant for representing aspects of Victoria’s shipping history and its potential to interpret sub-theme 1.5 of Victoria’s Framework of Historical Themes (living with natural processes). The collection is also historically significant for its association with the shipwreck and the ship, which was designed to be fastest and most luxurious of its day. The SCHOMBERG collection meets the following criteria for assessment: Criterion A: Importance to the course, or pattern, of Victoria’s cultural history. Criterion B: Possession of uncommon, rare or endangered aspects of Victoria’s cultural history. Criterion C: Potential to yield information that will contribute to an understanding of Victoria’s cultural history. The object is the bottom end of a slightly curved iron planking nail with remnant of timber still attached, recovered from the wreck of the SCHOMBERG (1855). The shank of the nail is rectangular and it narrows to a flat (chisel like) ‘point’. The ‘head’ is missing although there is a quantity of dark red corrosion within the top of the surrounding wood, suggesting where it might have been. The artefact is from the wreck of the SCHOMBERG (1855) and was retrieved from part of the ship’s bow which was carried by sea currents to the South Island of New Zealand. flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, schomberg, planking nail, rectangular ship’s nail, cast iron nail

Through many millennia, various suture materials were used or proposed. Needles were made of bone or metals such as silver, copper, and aluminium bronze wire. Sutures were made of plant materials (flax, hemp and cotton) or animal material (hair, tendons, arteries, muscle strips and nerves, silk, and catgut).[citation needed] The earliest reports of surgical suture date to 3000 BC in ancient Egypt, and the oldest known suture is in a mummy from 1100 BC. A detailed description of a wound suture and the suture materials used in it is by the Indian sage and physician Sushruta, written in 500 BC. The Greek father of medicine, Hippocrates, described suture techniques, as did the later Roman Aulus Cornelius Celsus. The 2nd-century Roman physician Galen described sutures made of surgical gut or catgut. In the 10th century, the catgut suture along with the surgery needle were used in operations by Abulcasis. The gut suture was similar to that of strings for violins, guitars, and tennis racquets and it involved harvesting sheep or cow intestines. Catgut sometimes led to infection due to a lack of disinfection and sterilization of the material. Joseph Lister endorsed the routine sterilization of all suture threads. He first attempted sterilization with the 1860s "carbolic catgut," and chromic catgut followed two decades later. Sterile catgut was finally achieved in 1906 with iodine treatment. The next great leap came in the twentieth century. The chemical industry drove production of the first synthetic thread in the early 1930s, which exploded into production of numerous absorbable and non-absorbable synthetics. The first synthetic absorbable was based on polyvinyl alcohol in 1931. Polyesters were developed in the 1950s, and later the process of radiation sterilization was established for catgut and polyester. Polyglycolic acid was discovered in the 1960s and implemented in the 1970s. Today, most sutures are made of synthetic polymer fibers. Silk and, rarely, gut sutures are the only materials still in use from ancient times. In fact, gut sutures have been banned in Europe and Japan owing to concerns regarding bovine spongiform encephalopathy. Silk suture is still used today, mainly to secure surgical drains. https://en.wikipedia.org/wiki/Surgical_suture#:~:text=Sutures%20were%20made%20of%20plant,a%20mummy%20from%201100%20BC. This tin contains a variety of surgical threads and accessories that were used by Dr W.R.Angus. It was donated to Flagstaff Hill Maritime Village by the family of Doctor William Roy Angus, Surgeon and Oculist. It is part of the “W.R. Angus Collection” that includes historical medical equipment, surgical instruments and material once belonging to Dr Edward Ryan and Dr Thomas Francis Ryan, (both of Nhill, Victoria) as well as Dr Angus’ own belongings. The Collection’s history spans the medical practices of the two Doctors Ryan, from 1885-1926 plus that of Dr Angus, up until 1969. ABOUT THE “W.R.ANGUS COLLECTION” Doctor William Roy Angus M.B., B.S., Adel., 1923, F.R.C.S. Edin.,1928 (also known as Dr Roy Angus) was born in Murrumbeena, Victoria in 1901 and lived until 1970. He qualified as a doctor in 1923 at University of Adelaide, was Resident Medical Officer at the Royal Adelaide Hospital in 1924 and for a period was house surgeon to Sir (then Mr.) Henry Simpson Newland. Dr Angus was briefly an Assistant to Dr Riddell of Kapunda, then commenced private practice at Curramulka, Yorke Peninsula, SA, where he was physician, surgeon and chemist. In 1926, he was appointed as new Medical Assistant to Dr Thomas Francis Ryan (T.F. Ryan, or Tom), in Nhill, Victoria, where his experiences included radiology and pharmacy. In 1927 he was Acting House Surgeon in Dr Tom Ryan’s absence. Dr Angus had become engaged to Gladys Forsyth and they decided he would take time to further his studies overseas in the UK in 1927. He studied at London University College Hospital and at Edinburgh Royal Infirmary and in 1928, was awarded FRCS (Fellow from the Royal College of Surgeons), Edinburgh. He worked his passage back to Australia as a Ship’s Surgeon on the on the Australian Commonwealth Line’s SS Largs Bay. Dr Angus married Gladys in 1929, in Ballarat. (They went on to have one son (Graham 1932, born in SA) and two daughters (Helen (died 12/07/1996) and Berenice (Berry), both born at Mira, Nhill ) Dr Angus was a ‘flying doctor’ for the A.I.M. (Australian Inland Ministry) Aerial Medical Service in 1928 . The organisation began in South Australia through the Presbyterian Church in that year, with its first station being in the remote town of Oodnadatta, where Dr Angus was stationed. He was locum tenens there on North-South Railway at 21 Mile Camp. He took up this ‘flying doctor’ position in response to a call from Dr John Flynn; the organisation was later known as the Flying Doctor Service, then the Royal Flying Doctor Service. A lot of his work during this time involved dental surgery also. Between 1928-1932 he was surgeon at the Curramulka Hospital, Yorke Peninsula, South Australia. In 1933 Dr Angus returned to Nhill where he’d previously worked as Medical Assistant and purchased a share of the Nelson Street practice and Mira hospital from Dr Les Middleton one of the Middleton Brothers, the current owners of what was once Dr Tom Ryan’s practice. Dr L Middleton was House Surgeon to the Nhill Hospital 1926-1933, when he resigned. [Dr Tom Ryan’s practice had originally belonged to his older brother Dr Edward Ryan, who came to Nhill in 1885. Dr Edward saw patients at his rooms, firstly in Victoria Street and in 1886 in Nelson Street, until 1901. The Nelson Street practice also had a 2 bed ward, called Mira Private Hospital ). Dr Edward Ryan was House Surgeon at the Nhill Hospital 1884-1902 . He also had occasions where he successfully performed veterinary surgery for the local farmers too. Dr Tom Ryan then purchased the practice from his brother in 1901. Both Dr Edward and Dr Tom Ryan work as surgeons included eye surgery. Dr Tom Ryan performed many of his operations in the Mira private hospital on his premises. He too was House Surgeon at the Nhill Hospital 1902-1926. Dr Tom Ryan had one of the only two pieces of radiology equipment in Victoria during his practicing years – The Royal Melbourne Hospital had the other one. Over the years Dr Tom Ryan gradually set up what was effectively a training school for country general-practitioner-surgeons. Each patient was carefully examined, including using the X-ray machine, and any surgery was discussed and planned with Dr Ryan’s assistants several days in advance. Dr Angus gained experience in using the X-ray machine there during his time as assistant to Dr Ryan. Dr Tom Ryan moved from Nhill in 1926. He became a Fellow of the Royal Australasian College of Surgeons in 1927, soon after its formation, a rare accolade for a doctor outside any of the major cities. He remained a bachelor and died suddenly on 7th Dec 1955, aged 91, at his home in Ararat. Scholarships and prizes are still awarded to medical students in the honour of Dr T.F. Ryan and his father, Dr Michael Ryan, and brother, John Patrick Ryan. ] When Dr Angus bought into the Nelson Street premises in Nhill he was also appointed as the Nhill Hospital’s Honorary House Surgeon 1933-1938. His practitioner’s plate from his Nhill surgery states “HOURS Daily, except Tuesdays, Fridays and Saturday afternoons, 9-10am, 2-4pm, 7-8pm. Sundays by appointment”. This plate is now mounted on the doorway to the Port Medical Office at Flagstaff Hill Maritime Village, Warrnambool. Dr Edward Ryan and Dr Tom Ryan had an extensive collection of historical medical equipment and materials spanning 1884-1926 and when Dr Angus took up practice in their old premises he obtained this collection, a large part of which is now on display at the Port Medical Office at Flagstaff Hill Maritime Village in Warrnambool. During his time in Nhill Dr Angus was involved in the merging of the Mira Hospital and Nhill Public Hospital into one public hospital and the property titles passed on to Nhill Hospital in 1939. In 1939 Dr Angus and his family moved to Warrnambool where he purchased “Birchwood,” the 1852 home and medical practice of Dr John Hunter Henderson, at 214 Koroit Street. (This property was sold in1965 to the State Government and is now the site of the Warrnambool Police Station. ). The Angus family was able to afford gardeners, cooks and maids; their home was a popular place for visiting dignitaries to stay whilst visiting Warrnambool. Dr Angus had his own silk worm farm at home in a Mulberry tree. His young daughter used his centrifuge for spinning the silk. Dr Angus was appointed on a part-time basis as Port Medical Officer (Health Officer) in Warrnambool and held this position until the 1940’s when the government no longer required the service of a Port Medical Officer in Warrnambool; he was thus Warrnambool’s last serving Port Medical Officer. (The duties of a Port Medical Officer were outlined by the Colonial Secretary on 21st June, 1839 under the terms of the Quarantine Act. Masters of immigrant ships arriving in port reported incidents of diseases, illness and death and the Port Medical Officer made a decision on whether the ship required Quarantine and for how long, in this way preventing contagious illness from spreading from new immigrants to the residents already in the colony.) Dr Angus was a member of the Australian Medical Association, for 35 years and surgeon at the Warrnambool Base Hospital 1939-1942, He served as a Surgeon Captain during WWII1942-45, in Ballarat, Victoria, and in Bonegilla, N.S.W., completing his service just before the end of the war due to suffering from a heart attack. During his convalescence he carved an intricate and ‘most artistic’ chess set from the material that dentures were made from. He then studied ophthalmology at the Royal Melbourne Eye and Ear Hospital and created cosmetically superior artificial eyes by pioneering using the intrascleral cartilage. Angus received accolades from the Ophthalmological Society of Australasia for this work. He returned to Warrnambool to commence practice as an ophthalmologist, pioneering in artificial eye improvements. He was Honorary Consultant Ophthalmologist to Warrnambool Base Hospital for 31 years. He made monthly visits to Portland as a visiting surgeon, to perform eye surgery. He represented the Victorian South-West subdivision of the Australian Medical Association as its secretary between 1949 and 1956 and as chairman from 1956 to 1958. In 1968 Dr Angus was elected member of Spain’s Barraquer Institute of Barcelona after his research work in Intrasclearal cartilage grafting, becoming one of the few Australian ophthalmologists to receive this honour, and in the following year presented his final paper on Living Intrasclearal Cartilage Implants at the Inaugural Meeting of the Australian College of Ophthalmologists in Melbourne In his personal life Dr Angus was a Presbyterian and treated Sunday as a Sabbath, a day of rest. He would visit 3 or 4 country patients on a Sunday, taking his children along ‘for the ride’ and to visit with him. Sunday evenings he would play the pianola and sing Scottish songs to his family. One of Dr Angus’ patients was Margaret MacKenzie, author of a book on local shipwrecks that she’d seen as an eye witness from the late 1880’s in Peterborough, Victoria. In the early 1950’s Dr Angus, painted a picture of a shipwreck for the cover jacket of Margaret’s book, Shipwrecks and More Shipwrecks. She was blind in later life and her daughter wrote the actual book for her. Dr Angus and his wife Gladys were very involved in Warrnambool’s society with a strong interest in civic affairs. Their interests included organisations such as Red Cross, Rostrum, Warrnambool and District Historical Society (founding members), Wine and Food Society, Steering Committee for Tertiary Education in Warrnambool, Local National Trust, Good Neighbour Council, Housing Commission Advisory Board, United Services Institute, Legion of Ex-Servicemen, Olympic Pool Committee, Food for Britain Organisation, Warrnambool Hospital, Anti-Cancer Council, Boys’ Club, Charitable Council, National Fitness Council and Air Raid Precautions Group. He was also a member of the Steam Preservation Society and derived much pleasure from a steam traction engine on his farm. He had an interest in people and the community He and his wife Gladys were both involved in the creation of Flagstaff Hill, including the layout of the gardens. After his death (28th March 1970) his family requested his practitioner’s plate, medical instruments and some personal belongings be displayed in the Port Medical Office surgery at Flagstaff Hill Maritime Village, and be called the “W. R. Angus Collection”. The repair of open wounds is essential to prevent infection and death. The W.R. Angus Collection is significant for still being located at the site it is connected with, Doctor Angus being the last Port Medical Officer in Warrnambool. The collection of medical instruments and other equipment is culturally significant, being an historical example of medicine from late 19th to mid-20th century. Dr Angus assisted Dr Tom Ryan, a pioneer in the use of X-rays and in ocular surgery. Black tin with hinged lid, containing reels and packets of surgical silk, gut and metal suture threads, scalpel blades, chamois and metal blade holder with tensioned chamois piece across top. (W.R. Angus Collection)‘MEDRAFIL, Dr MULLER- MEERNACH, Nr O, MADE IN GERMANY.’ printed on one of the paper bags in the box containing a suture bobbin. 'PEARSALL'S LONDON' printed on some bobbins. 'J A DEKNATEL & SON INC, QUEENS VILLAGE, LONG ISLAND NEW YORK' printed on others.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, surgical silks and sutures, dr w r angus, medical equipment, surgical instrument, dr ryan, ophthalmology, s.s. largs bay, warrnambool base hospital, nhill base hospital, flying doctor, medical history, medical treatment, mira hospital, medical education, medical text book, sutures, surgical silk

ESCo Employee Hours Work Record book that has been used by an ESCo/SEC inspector, H. P. James as a record / note book for his personal collection or papers or journal titled "Out of the Past". Book sewn with string in 36 page sections, blank end papers, board covers with stipple paper out sides and Rexene cloth binding. Comprising plain paper end papers and 104 printed pages (52 leaves), with each sheet printed in black on feint ruled paper for recording the hours worked and other details of drivers and conductors employed by ESCo. Printed for daily use, with Day and date page headings - made out for the 1930's. Images: Book - i1 Inside front cover - i2 Members Certificate - i3 Has been used to gather mementos such as photos, articles, newspaper clippings, letters and other miscellaneous documents on Ballarat local history. Newspaper cuttings etc often have side notes written by Mr. James. Inside front cover has certificate recording Mr. James membership to the Ballarat Historical Society for 1940. Receipt signed by Edward Crimmins. Also a newspaper cutting on the cost of pensions to Lord Nelson's family. On facing page a photo of Queen Elizabeth, a printer colour cover or sheet about Walt Disney's "Pinocchio", a newspaper cutting regarding Father's Day and a black and white photograph of a young girl in a hospital carriage being pushed by a man. Pages numbered odd numbers only in the top right hand corner in pencil. Primary items are: 1 - Coloured cover to a writing tablet, titled "Australian Birds". Underlying this on the back of the writing tablet is two newspaper cuttings: the Ballarat Historical Society - reports on the 6th Annual meeting of the Society. 3 - Photo of the pattern Ballaarat Horse Tram company tram outside the Duncan and Fraser's Carriage Works in Adelaide with hand written notes underneath, including a sketch of a horse tram drivers seat - see Reg. Item 2527. 4, 6 - Group of nine black and white printed cards (15 illustrations) of early Ballarat pasted onto the sheet - see Reg. Item 2528. 5, 7 & 9 - Printed notes titled "Valedictory to Bob Haines" - see Reg. Item 2529. On page 9 in the left hand margin, a printed list of Church Officers; Church of England. 8 - Newspaper cuttings titled "The Heralds Man's Quiz" and the answers adjacent. City of Ballaarat - Public Inoculation Depot - Influenza form for HP James of ESCo - See Reg. Item 2530. Page Numbering from this point changes - even numbers in top right hand corner of folios instead of odd numbers. 9A - Newspaper cuttings about a Theatre Show, 54 years service of Mr. E. R. Bodycomb (Ballarat Gas) and planting of trees in the Avenue of Honour - with a red line around H. P. James names and a reproduction of the opening photograph of ESCo Electric Trams - noting 30 years ago - See Reg. Item 310.2. ESCo 4d Ticket - Purple - Grenville St to Sebastopol Terminus - See Reg Item 2531. ESCo 3d Adult Transfer Ticket - See Reg. Item 2532. Illustration - cartoon - H.P. James - See Reg. Item 2533. 10 - Newspaper cutting "From Horse Tram to Trolley Bus" - See Reg Item 2534. Newspaper cutting "Melbourne's First Tramcars" - See Reg Item 2535. An inscription or written note from T. Thomas etc. on lower edge of the sheet. 11,12 - Newspaper cuttings about the Passing of Melbourne's Cable Trams, including a photo of cable trailer No. 1 - See Reg. Item 2536. Other cuttings about early residents of the Ballarat district. 13 - Newspaper cutting dated 2/5/1936 about the donation from the CTA to the Ballarat Hospital. 14 - Newspaper cuttings - Photo of Ballarat Bicycle and Tricycle Club in the Gardens, the issue of a stamp to commemorate the Centenary of Ballarat, radio stations in Sydney, Ballarat Choirs and fire brigade demonstrations trophies. 16 - Copy of the "City of Ballaarat Regulation No. 13" concerning Hackney and Stage coaches working within the City - See Reg. item 2537. 18, 20 - Newspaper cutting - "The Working Classes in Early Ballarat" - Nathan Spielvogel 21 - handwritten note on "Doctor" Thomas Blackett who died during 1940. 22 - Miscellaneous cuttings from the Melbourne Sun. 23 - Newspaper cuttings "Story of South Street", Show Grounds, and "The Alfred" Hall and a photograph of the 1938 Floral Carpet at Alfred Hall. 24 - Newspaper cutting - obituary and hand written note on Ballarat identity Mr. J. P. Bourke. 25 - Newspaper cutting - cartoon "Tiddley" Winks and Wally - Stan Cross (later "Wally and the Major" 26 - Newspaper cutting - "Ballarat in the sixties" - General R.E. Williams and "Early Recollections" - Arthur Reid. 27 - Handwritten note re Mrs. Bill Danks, dated Jan. 1941 - Tobacconist in Bridge St. 28 - Newspaper cutting - "First Town Hall" and note on "City Hall". 30 - Newspaper cuttings - "Good Friday, Now and Then - T.P. Long, Mont Albert and "On Fashions" James R. Pound. 32 - Newspaper cutting "School and School life in old Ballarat" - Nathan F. Spielvogel. 34 - Newspaper cutting continued from page 32 and Obituary - Mr. Archie Dawson and Tom Blackett. 35 - Newspaper cutting of Ballarat - 4 photos - include Bridge St. with a tram. 36 - Newspaper cutting - "Ballarat - Pastoral and Industrial Resources" from a Melbourne paper, 17/2/1940. 38 - Newspaper cuttings - obituaries - Mr. R. E. Tunbridge, Graeme Dowling and Thomas Crosthwaite. 39 - Illustration - black and white - Late Mr. P. J. Pringle - See Reg. Item 2538. 40 - Handwritten notes on Ballarat Trams and the power station staff - See Reg. Item 2539. 41 - Handwritten notes on Ballarat Pie Stalls 42 - Newspaper cuttings - cartoon "Professor Nimbus", photo of the Norwegian town of Hell (Railway station); bicycles on a Copenhagen bridge following German occupation and dragon flies in Melbourne. 43 - Newspaper cutting on the official opening of the Ballarat Historical Society's Museum. 44 - Newspaper cuttings and associated handwritten notes on a fire in Ballarat, poultry fanciers, historical dates for August. 46 - Newspaper cuttings - "Victoria's first profitable goldfield" - Ballarat and the unveiling of the Sovereign Hill direction pillar. 48 - Newspaper cutting - "Worked 27 years without holiday" - See Reg. Item. 2540. - Other newspaper cuttings - thoughts of a visitor to Ballarat from Sydney and H.P. James - Liquor control in Ballarat and "This Week at the Zoo". 50 - Handwritten notes on clothing. 51 - Handwritten note on a visit to W. H. Middleton 52 - Newspaper cuttings "The Kings Empire", "Ballarat Birthdays" for Sept and Oct and an obituary on Mr. W. H. Middleton. 54 - Newspaper cuttings "Richmond has Links With Early Goldfields" - Malcolm McCullum and "England's Greatest Battle" 55, 56 - Newspaper cuttings - "Ballarat Birthdays" for November and December, a photograph of Nick Oliver - former Ballarat fireman and "Railway Birthday" - birth of the VR. 57, 58 - Handwritten notes on Ballarat tram timetables, weekly tickets, motorman's record cards, tourist tickets and sample tickets or cards, See Reg. Item 2541. Lunch Hour Weekly Ticket - Reg. Item 2542 Morning and Evening Weekly Ticket - Reg. Item 2543 Motorman's Record - Reg. Item 2544 Tourist Ticket - 1/- - Reg. Item 2545. 60 - Newspaper cuttings - parts 1 and 2 - "The Two Ballarat" by Nathan Spielvogel. 62 - Newspaper cuttings - continued from page 60, the death of comedians Sam Mayo and Gus Bluett and some handwritten notes on comedians. 64 - Newspaper cuttings on cricket, choir rules, a Methodist ladies function at the home of H.P. James, Footballer Percy Beames and entertaining air force recruits at the showgrounds. 66 - Newspaper cuttings - "The Anvil Chorus" - Hitler and Mussolini and "Strength against Nazi Threat". 68 - Newspaper cuttings - 50 years ago in Ballarat, Social function at H.P. James house, coldest morning in Ballarat and the death of Col. A. W. Bennett. 70 - Newspaper cuttings - about the sale of spirits in early Ballarat, the first motorcars in Ballarat and handwritten note about Mr. Jago. 72 - Newspaper cuttings - misc. about horse racing, trainers and racing. 73 - Newspaper cuttings and handwritten notes about Ballarat Schools. 74 - Newspaper cuttings - Bruno Hauptmann (Charles Lindbergh) and the death of actor Darcy Kelway. 75, 76 - Newspaper cuttings - Rail services to and from Ballarat, effects of the war and Ballarat 70 years ago, the invasions of Britain and "A stroll down Memory Lane" - T.P. Long of Mont Albert. 77,78 - Newspaper cuttings - Lake Wendouree - Nathan Spielvogel, the opening of the new Ballarat Historical Society's Museum and farewell function of Mr. James Shannon. 79 - Newspaper cuttings - about boats on lake Wendouree. 99 - Obituary and hand written note re Mr. Arthur M. David. 100 - Newspaper cuttings - cartoon "Wally and the Major", Dr William Maloney, Gus Bluett and "Old Rowley" - in connection with the Melbourne Cup of 1940. 101 - Cartoon advertisement for Kolynos Dental Cream Inside rear cover - Programme for the Centenary of Thanksgiving Service - Back to Ballarat 1934, dated 4/11/1934 (has been affected by other sheets of paper due to their acidic nature), printed notes titled "A ramble on stilts with Freddie" written by Baker James. Many in pencil and inktrams, tramways, h.p. james, esco, horse trams, ballarat, civic history

---, ---, Cottages Liaison Committee members, pp. 4&5 ---, (---), (Untitled), p.4. ---, (---), [Memo re feedback from Official Visitors Conference at Royal Park], p.1. ---, (---), [Patient profile proforma], pp.1-2. ---, (---), Admission to Children’s Cottages Kew, p.1. ---, (---), Admissions Procedure, pp.1-2. ---, (---), Chaplaincy, p.1. ---, (---), Children’s Cottages and Special School Kew - Open for Education Week, p.1. ---, (---), Children’s Cottages Kew, p. 1-2. ---, (---), Children’s Cottages Kew, p.1. ---, (---), Children’s Cottages, Kew - Pathology Request and Report Form, p. 1. ---, (---), Children’s Cottages? Kew, pp.1-4 ---, (---), Extracts From the Report of Dr. J. V. McCreery, first Superintendent, p.1. ---, (---), Kew Cottages Training Centre Brochure, pp.1. ---, (---), Kew Special School, pp.1-2. ---, (---), Notes for General Guidance of Officers in Charge of Idiot Children, p.1. ---, (---), Notes for General Guidance of Officers in Charge of Idiot Children, p.1. ---, (---), Notes for Student Groups, pp.1-6. ---, (---), Physiotherapy at the Children’s Cottages Kew, p.1. ---, (---), Preface to Brochure on Cottages, pp.1-2. ---, (---), The administrative staff comprises …, pp.1-2. ---, (---), Untitled, p.2. ---, (1958, 29 August), Notes from a meeting of Superintendents with Dr Dax and other superintendents, p.1. ---, (1958, October - December), Proposed Survey of Children’s Cottages, Kew, pp.1-6., and Case Sheet pp. 1-5. ---, (1961, 2 November), Untitled letter regarding finances and upgrades, p.1. ---, (1962, 25 October), Memorandum, p.1. ---, (1962), Children’s Cottages Kew [overview of activities], p.1. ---, (1962), Report for the Year 1962 [statistics], p.1. ---, (1963), The Children’s Cottages Kew, pp.1-3. ---, (1964, 10 September), Merchandise Project Children’s Welfare Fund, Kew Cottages Parents Association, p.1. ---, (1964, 26 May), [Draft] Preface to Brochure on Cottages, pp.1-2. ---, (1964, October), Report to the Twelfth Annual (Perth) Conference: Australian Council for the Mentally Retarded, Kew Cottages Parents Association, pp.1-2. ---, (1964), Children’s Welfare Fund: Disbursements July 1963 - September 1964. [Brady, Dr W.A.] , (---), Transfer of Patients from One Institution to Another, pp.1-3. [Higgins, Irena], (---), The Formation and Development of Kew Children’s Cottages Parent’s Association, pp.1-6. Ashburner, J.B., (---, ---), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 1 April), Notices and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 10 February), Notices and Instructions, Kew Mental Hospital, pp.1-3. Ashburner, J.B., (1954, 10 March), Notices and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 11 March), Notices and Instructions, Kew Mental Hospital, pp.1-4. Ashburner, J.B., (1954, 11 May), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 12 March), Notices and Instructions, Kew Mental Hospital, pp.1-4. Ashburner, J.B., (1954, 12 May), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 13 August), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 13 May), Notes and Instructions, Kew Mental Hospital, pp.1-3. Ashburner, J.B., (1954, 14 April), Notes and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 15 April), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 15 June), Notes and Instructions, Kew Mental Hospital, p.1-2. Ashburner, J.B., (1954, 16 July), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 19 February), Notes and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 19 October), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 2 April), Notices and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 2 July), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 2 March), Annual Report for 1952, Kew Mental Hospital, pp.1-4. Ashburner, J.B., (1954, 20 August), Notes and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 21 October), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 23 February), Notices and Instruction - Succinic Acid Treatment, Kew Mental Hospital, pp.1-2 Ashburner, J.B., (1954, 23 June), Notes and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 23 March), Notices and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 25 May), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 27 April), Notes and Instructions, Kew Mental Hospital, pp.1-3. Ashburner, J.B., (1954, 27 May), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 28 July), Notes and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 29 July), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 3 September), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 31 March), Notices and Instructions - Rations, Kew Mental Hospital, pp.1-4. Ashburner, J.B., (1954, 4 June), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 4 May), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 4 October), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 6 April), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 6 October), Notes and Instructions, Kew Mental Hospital, pp.1-2. Ashburner, J.B., (1954, 7 July), Notes and Instructions, Kew Mental Hospital, p.1. Ashburner, J.B., (1954, 5 February), Notices and Instructions, Kew Mental Hospital, p.1. Brady Dr. W.A. (1960, December), Newsletter to parents, pp.1-5 Brady, Dr W.A. (1965, 28 May), Letter to The Secretary, Mental Health Authority regarding waiting lists, p.1. Brady, Dr. W.A. (1963, 28 February) Annual Report [to the Secretary of the Mental Health Authority], pp.1-15 Brady, W.A., (1954, 9 April), Notes and Instructions, Kew Mental Hospital, pp.1-2. Brady, W.A., (1954, 15 December), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1954, 7 December), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1954, 9 November), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 13 December), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 14 December), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 15 July), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 20 June), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 24 June), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 24 October), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 25 August), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 29 March), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 5 December), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 8 November), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1955, 9 May), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1956, 6 January), Notes and Instructions, Kew Mental Hospital, p.1. Brady, W.A., (1961, 8 December), Invitation to a screening of Dr. Pitt’s “Brookland Experiment”, p.1. Brazier, ‘Mac’ (1964, February), Newsletter, Kew Cottages Parents Association, pp.1-2. Brazier, ‘Mac’, (1964, June), Newsletter, Kew Cottages Parents Association, pp.1-4. Brazier, ‘Mac’, (1964, April), Newsletter, Kew Cottages Parents Association, pp.1-4. Brazier, ‘Mac’, (1964, August), Newsletter, Kew Cottages Parents Association, pp.1-4. Brazier, ‘Mac’, (1964, December), Newsletter, Kew Cottages Parents Association, pp.1-4. [3 copies]. Brazier, ‘Mac’, (1964, July), Newsletter, Kew Cottages Parents Association, pp.1-4. Brazier, ‘Mac’, (1964, May), Newsletter, Kew Cottages Parents Association, pp.1-4. Brazier, ‘Mac’, (1964, November), Newsletter, Kew Cottages Parents Association, pp.1-5. Brazier, ‘Mac’, (1964, October), Newsletter, Kew Cottages Parents Association, pp.1-6. Brazier, ‘Mac’, (1964, September), Newsletter, Kew Cottages Parents Association, pp.1-4. Brazier, Betty (1964, 26 April), Letter to I Higgins re Distribution of newsletters to staff, Kew Cottages Parents Association. (p.1) Dale, (1964), A Few Facts About the Children’s Cottages Kew Fordyce, J., (1956, 13 January), Notes and Instructions, Kew Mental Hospital, p.1. Higgins, Irena (---), A Short History of the Children’s Cottages, Kew, pp.1-2. Higgins, Irena (1966, 28 November), Letter to Dr Brady regarding waiting lists, pp.1-3. Higgins, Irena, (---), ‘Children’s Cottages’, Kew, p. 1-2. Loveless, L.W., (1963, 18 July), [Commonwealth Department of Social Services] ‘Approval of Children’s Cottages as an endowed Institution’, p.1. M.H. 11, Schedule 17 Section 41 (2) (b), ‘Request of Medical Practitioner for Admission of Voluntary patient to a Training Centre or Private Training Centre’, Mental Health Regulations 1962, p.1. M.H. 12, Section 41 (10) (a) (b) (c), ‘Order for the Discharge of a Voluntary Patient’, Mental Health Regulations 1962, p.1. M.H. 13, Section 41 (10) (d), ‘Application for Discharge by Voluntary Patient and Order for Discharge’, Mental Health Regulations 1962, p.1. M.H. 14, Section 41 (1), Application for Leave of Absence for Voluntary Patient, Mental Health Regulations 1962, p.1. M.H. 2, Schedule 9 Section 41 (a) 41 (b) 42 (1) 43 (1) 44 (1) 48, 59 (1) (2) ‘Statement of Personal Details of Patient’, Mental Health Regulations 1962, p.1-2. M.H. 21, Schedule 9 Section 44 (1) 48 and 52, Medical Approval for Admission to Training Centre, Mental Health Regulations 1962, pp.1-2. M.H. 22, Schedule 25 Section 44, Request to Receive a Patient into a Training Centre, Mental Health Regulations 1962, p.1. M.H. 33, Schedule 40, Section 62, Notice of Death, Mental Health Regulations 1962, p.1. M.H. 37, Section 87 (1), Application and Approval for Trial Leave, Recommended and Approved Patients, Mental Health Regulations 1962, p.1. M.H. 39, Section 93 (1), Order of Superintendent for Discharge of Patient on Leave Upon Production of Medical Certificate, Mental Health Regulations 1962, p.1. M.H. 40, Section 94 (1), Order of Superintendent for Discharge of Patient, Mental Health Regulations 1962, p.1. M.H. 43, Section 102, Consent of the Chief medical Officer or Superintendent for Anaethesia or Surgical Operation Upon a Patient, Mental Health Regulations 1962, p. 1. M.H. 7, Schedule 14 Section 41 (2) (a) (i) and (ii), ‘Application for Admission of Voluntary Patient to a Training Centre or Private Training Centre by Parent or Guardian’, Mental Health Regulations 1962, p.1. M.H. 9, Schedule 16 Section 41 (2) (a) (ii), ‘Application for Admission to a Training Centre as a Voluntary Patient’, Mental Health Regulations 1962, p.1. Medical Officers (1958, 11 October), Percentage of deaths and statistics for the years 1955 to 1957, Report to Dr. E.C. Dax, Chairman, Mental Health Authority, pp. 1-2. Plumridge, Len, (1964), Statement of Receipts & Expenditure 1963-1964: Children’s Welfare Fund, Kew Cottages Parents Association, p.1. Temby, E., (---), The Kew Cottages Parents’ Association, p. 1-2. Temby, Ethel, (1964, October), Proceedings of the Twelfth Annual Conference, Australian Council for the Mentally Retarded, pp.1-2. Temby, Ethel, (1964, September), [Information Committee] Sixth Annual Report pp.1-2 Temby, Ethel, (1964, September), Information Committee: Sixth Annual Report, pp.1-2 Wann, E.M., (1956, 16 March), Memo [regarding the overcrowding crisis], p. 1. WM.7663 (---), Children’s Cottages Kew E.4 [overview and personnel], pp. 1-2.An important manuscript comprising original and reproduced materials from the period 1952-1964 assembled by and for senior staff at the Children's Cottages, Kew.Sorted folio of original manuscripts and printed material from the 1950s and 1960s relating to the Kew Cottages created by Irena Higgins, senior social worker at the Kew Mental Hospital and Kew Cottages. The material later formed part of the collection of Dr Cliff Judge, resident psychiatrist at the Cottages. Material within the folio includes original typescripts created by Irena Higgins, copies of newsletters by various Superintendent and Deputy Superintendent Psychiatrists including Dr A.W. Brady, and published and unpublished reports to relevant mental health departments.mental health - victoria - history, chidren's cottages - kew, irana higgins, dr cliff judge, dr. a.w. brady