A Brief History Of Mabie Todd Ltd The company originated in America from the beginnings during the 1860s when a Mr. Todd and a Mr. Mabie began making pencil cases and pen holders in New York. Later they were joined by the Bard Brothers who made Gold nibs and by 1873 the company of Mabie Todd and Bard were established in New York. By 1878 the first patent was filed for the design and manufacture of a fountain pen, achieved under the design leadership of one William Washington Stewart. The first Swan fountain pen followed just 6 years later in 1884 with an over-under feed with ink delivery assisted by a twisted silver wire. This same year an office had been established in the UK with a showroom in Cheapside, London. The UK was being supplied with a steadily increasing supply of pens from New York and by 1905 new, larger showrooms were established in High Holborn. By this time the Swan pen had become synonymous with fountain pens at large. In 1906 the name of Bard was dropped in the US and the UK company subsequently adopted the title Mabie Todd & Co. New York. In 1907 British production began, using imported nibs from New York and whilst the company in the UK flourished, the business in the US started to diminish under stiff competition from new manufacturers.. By 1915 manufacturing was doing well in England from a factory in Weston Street, London and the New York company agreed to sell the rights to all European and Colonial business to Mabie Todd & Company Ltd of England. From then onwards, the development of the range mostly followed, rather than led the interests of the markets they were supplying. Even during the First World War the business continued to flourish. with factories in both London and Liverpool. At the end of 1919 a new expansion plan saw the establishment of a new Headquarters in Oxford Street, London. Throughout this period, some components were continuing to be imported from America, but gradually these diminished and during the 20s and 30s manufacturing facilities were expanded and by the end of the 1930s Mabie Todd were in full production, manufacturing pens in its London factory, gold nibs in Birmingham and ink in Liverpool. Another new headquarters grew out of this period of abundance and market domination. when in 1936 they moved into Sunderland House in Mayfair, London, a highly prized mansion building. Disaster struck early in the Second World War. Its prestigious Sunderland House headquarters was destroyed during the blitz, followed by destruction of its main factory in Harlesden, North London. Some machinery was saved and able to be used at another factory premises in the City, but like many other 'non essential' manufacturing, the main production was centred on wartime components such as rocket fuses and ammunition. After The War, in 1945 they moved out of their City premises to Park Royal and eventually in 1946 proper fountain pen production was resumed. In 1948 the company decided to go public. But at the time they had no plans to enter into the market for the now growing interest in ballpoint pens, the result was the beginning of their slide into obscurity and subsequent demise. They became Biro Swan in 1952 following a large share purchase by Biro Pens. Even though at this time they had just launched their new high profile Calligraph range to join the competition for the new market associated with a craze for italic writing, fountain pen manufacture under the new company was to suffer a lack of real support. The restyled ranges of 1956 failed to ignite market interest and with diminishing quality, the end of the Mabie Todd story was inevitable. After 80 years of Swan pens, the book was closed.This bottle of ink would have been supplied to schools. After a child was deemed old enough to progress from just using slate and board, he/she would have been supplied with a pen shaft made of wood and with a very basic metal nib. The ink bottle would be used to fill up the individual inkwells. This operation would have been conducted by the teacher him/herself, or by an older pupil under the close eye of the teacher.Ink bottle clear glass with 'Swan Ink' paper label. Has rusted screw on top & black ink inside.Label has 'Mabel Todd' manufacturer's logo at top,; 'Swan Ink' name clearly shown; 'Made in England' printed clearly; and 'Mable Todd & Co Ltd, London & Liverpool' printed at base of label.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, ink, bottle, mabie todd ltd

Chauncey Jerome (1793–1868) was an American clock maker in the early to mid 19th century. He made a fortune selling his clocks, and his business grew quickly. Jerome was born in Canaan USA in 1793 son of a blacksmith and nail-maker. He began his career in Plymouth, making dials for long-case clocks where he learned all he could about clocks, particularly clock cases, and then went to New Jersey to make seven-foot cases for clocks mechanisms. In 1816 he went to work for Eli Terry making "Patent Shelf Clocks," learning how to make previously handmade cases using machinery. Deciding to go into business for himself, Jerome began to make cases, trading them to Terry for wooden movements. In 1822 Jerome moved his business to Bristol New Haven, opening a small shop with his brother Noble and began to produce a 30-hour and eight-day wooden clocks. By 1837 Jerome's company was selling more clocks than any of his competitors. A one-day wood-cased clock, which sold for six dollars had helped put the company on the map. A year later his company was selling that same clock for four dollars. The company also sold one line of clocks at a wholesale price of 75 cents and by 1841 the company was showing an annual profit of a whopping $35,000, primarily from the sale of its brass movements. In 1842 Jerome moved his clock-case manufacturing operation to St. John Street in New Haven. Three years later, following a fire that destroyed the Bristol plant, Jerome relocated the entire operation to Elm City factory. Enlarging the plant, the company soon became the largest industrial employer in the city, producing 150,000 clocks annually. In 1850 Jerome formed the Jerome Manufacturing Co. as a joint-stock company with Benedict & Burnham, brass manufacturers of Waterbury. In 1853 the company then became known as the New Haven Clock Co, producing 444,000 clocks and timepieces annually, then the largest clock maker in the world. Jerome's future should have been secure but in 1855 he bought out a failed Bridgeport clock company controlled by P.T. Barnum, which wiped him out financially, leaving the Jerome Manufacturing Co. bankrupt. Jerome never recovered from the loss. By his admission, he was a better inventor than a businessman. When Jerome went bankrupt in 1856 the New Haven Clock Company purchased the company. One of the primary benefits of Jerome purchasing New Haven in the first place was the good reputation of the Jerome brand and the network of companies that remained interested in selling its clocks. In England, Jerome & Co. Ltd. sold Jerome clocks for the New Haven company until 1904, when New Haven purchased the English firm outright. After his involvement with the New Haven Company in 1856, Jerome traveled from town to town, taking jobs where he could, often working for clock companies that had learned the business of clock making using Jerome's inventions. On returning to New Haven near the end of his life, he died, penniless, in 1868 at the age of 74. The company struggled on after Jerome's bankruptcy until after World War II, when the company endeavored to continue through disruptions caused by a takeover along with poor sales, finally having to fold its operations in 1960 a little more than 100 years after it had been founded. The item is significant as it is associated with Chauncey Jerome who had made a historic contribution to the clock making industry during the 19th century when he began to substitute brass mechanisms for wooden mechanisms in his clocks. This was said to be the greatest and most far-reaching contribution to the clock industry. Because of his discovery of stamping out clockwork gears rather than using castings, Jerome was producing the lowest-priced clocks in the world. That can only add to his significance as the major clock manufacture of the 19th century. Jerome may have made and lost, a fortune selling his clocks but was perhaps the most influential and creative person associated with the American clock business during the mid-19th century. Also, he had served his community as a legislator in 1834, a Presidential elector in 1852 and mayor of New Haven, Connecticut from 1854 to 1855.Eight day movement wall clock with Roman numerals, octagonal shaped rosewood veneered casing, hinged face with locking clip. Wound from front. Face has adjustment for Fast-to-Slow.Part paper label on back of case can just make out "Jerome" and "ight and One" probable meaning is "Eight and One Day" describing the movements operational time between winding the mechanism.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, clock maker, jerome & co, new haven, chauncey jerome, canaan

Chauncey Jerome (1793–1868) was an American clock maker in the early to mid 19th century. He made a fortune selling his clocks, and his business grew quickly. Jerome was born in Canaan USA in 1793 son of a blacksmith and nail-maker. He began his career in Plymouth, making dials for long-case clocks where he learned all he could about clocks, particularly clock cases, and then went to New Jersey to make seven-foot cases for clocks mechanisms. In 1816 he went to work for Eli Terry making "Patent Shelf Clocks," learning how to make previously handmade cases using machinery. Deciding to go into business for himself, Jerome began to make cases, trading them to Terry for wooden movements. In 1822 Jerome moved his business to Bristol New Haven, opening a small shop with his brother Noble and began to produce a 30-hour and eight-day wooden clocks. By 1837 Jerome's company was selling more clocks than any of his competitors. A one-day wood-cased clock, which sold for six dollars had helped put the company on the map. A year later his company was selling that same clock for four dollars. The company also sold one line of clocks at a wholesale price of 75 cents and by 1841 the company was showing an annual profit of a whopping $35,000, primarily from the sale of its brass movements. In 1842 Jerome moved his clock-case manufacturing operation to St. John Street in New Haven. Three years later, following a fire that destroyed the Bristol plant, Jerome relocated the entire operation to Elm City factory. Enlarging the plant, the company soon became the largest industrial employer in the city, producing 150,000 clocks annually. In 1850 Jerome formed the Jerome Manufacturing Co. as a joint-stock company with Benedict & Burnham, brass manufacturers of Waterbury. In 1853 the company then became known as the New Haven Clock Co, producing 444,000 clocks and timepieces annually, then the largest clock maker in the world. Jerome's future should have been secure but in 1855 he bought out a failed Bridgeport clock company controlled by P.T. Barnum, which wiped him out financially, leaving the Jerome Manufacturing Co. bankrupt. Jerome never recovered from the loss. By his admission, he was a better inventor than a businessman. When Jerome went bankrupt in 1856 the New Haven Clock Company purchased the company. One of the primary benefits of Jerome purchasing New Haven in the first place was the good reputation of the Jerome brand and the network of companies that remained interested in selling its clocks. In England, Jerome & Co. Ltd. sold Jerome clocks for the New Haven company until 1904, when New Haven purchased the English firm outright. After his involvement with the New Haven Company in 1856, Jerome traveled from town to town, taking jobs where he could, often working for clock companies that had learned the business of clock making using Jerome's inventions. On returning to New Haven near the end of his life, he died, penniless, in 1868 at the age of 74. The company struggled on after Jerome's bankruptcy until after World War II, when the company endeavored to continue through disruptions caused by a takeover along with poor sales, finally having to fold its operations in 1960 a little more than 100 years after it had been founded. The item is significant as it is associated with Chauncey Jerome who had made a historic contribution to the clock making industry during the 19th century when he began to substitute brass mechanisms for wooden mechanisms in his clocks. This was said to be the greatest and most far-reaching contribution to the clock industry. Because of his discovery of stamping out clockwork gears rather than using castings, Jerome was producing the lowest-priced clocks in the world. That can only add to his significance as the major clock manufacture of the 19th century. Jerome may have made and lost, a fortune selling his clocks but was perhaps the most influential and creative person associated with the American clock business during the mid-19th century. Also, he had served his community as a legislator in 1834, a Presidential elector in 1852 and mayor of New Haven, Connecticut from 1854 to 1855.Clock, marine, in octagonal rosewood veneer case. Roman numerals to dial, has a seconds dial. 2 key-winding holes slow-to-Fast adjustment pin through dial. Small lever in lower edge of case activates a chime. "8 day, 8 inch, Lever Striking escarpment " Paper label on the back of the clock "Jerome & Co, New Haven, Conn" "Manufacturers of every variety of Office and Home Clocks and Time Pieces".flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, clock, jerome & co, new haven, clock maker, chauncey jerome

Kelvin Company History: The origins of the company lie in the highly successful, if strictly informal, the relationship between William Thomson (1824-1907), Professor of Natural Philosophy at Glasgow University from 1846-1899 and James White, a Glasgow optical maker. James White (1824-1884) founded the firm of James White, who was an optical instrument maker in Glasgow in 1850. He was involved in supplying and mending apparatus for Thomson's university laboratory and working with him on experimental constructions. White was actually declared bankrupt in August 1861 and released several months later. In 1870, White was largely responsible for equipping William Thomson's laboratory in the new University premises at Gilmore hill. From 1876, he was producing accurate compasses for metal ships to Thomson's design during this period and this became an important part of his business in the last years of his life. He was also involved in the production of sophisticated sounding machinery that Thomson had designed to address problems encountered laying cables at sea, helping to make possible the first transatlantic cable connection. At the same time, he continued to make a whole range of more conventional instruments such as telescopes, microscopes and surveying equipment. White's association with Thomson continued until he died. After his death, his business continued under the same name, being administered by Matthew Edwards (until 1891 when he left to set up his own company). Thomson, who became Sir William Thomson and then Baron Kelvin of Largs in 1892, continued to maintain his interest in the business after James White's death in 1884, raising most of the capital needed to construct and equip new workshops in Cambridge Street, Glasgow. At these premises, the company continued to make the compass Thomson had designed during the 1870s and to supply it in some quantity, especially to the Admiralty. At the same time, the firm became increasingly involved in the design, production and sale of electrical apparatus. In 1899, Lord Kelvin resigned from his University chair and became, in 1900, a director in the newly formed limited liability company Kelvin & James White Ltd which had acquired the business of James White. At the same time Kelvin's nephew, James Thomson Bottomley (1845-1926), joined the firm. In 1904, a London branch office was opened which by 1915 had become known as Kelvin, White & Hutton Ltd . Kelvin & James White Ltd underwent a further change of name in 1913, becoming Kelvin Bottomley & Baird Ltd . Hughes Company History: Henry Hughes & Sons was founded in 1838 in London as a maker of chronographic and scientific instruments. The firm was incorporated as Henry Hughes & Sons Ltd in 1903. In 1923, the company produced its first recording echo sounder and in 1935, a controlling interest in the company was acquired by S Smith & Son Ltd resulting in the development and production of marine and aircraft instruments. Following the London office's destruction in the Blitz of 1941, a collaboration was entered into with Kelvin, Bottomley & Baird Ltd resulting in the establishing Marine Instruments Ltd. Following the formal amalgamation of Kelvin, Bottomley & Baird Ltd and Henry Hughes & Sons Ltd in 1947 to form Kelvin & Hughes Ltd., Marine Instruments Ltd then acted as regional agents in the UK for Kelvin & Hughes Ltd who were essentially now a part of Smith's Industries Ltd founded in 1944 and the successors of S Smith & Son Ltd. Kelvin & Hughes Ltd went on to develop various marine radar and echo sounders supplying the Ministry of Transport, and later the Ministry of Defence. The firm was liquidated in 1966 but the name was continued as Kelvin Hughes, a division of the Smiths Group. In 2002, Kelvin Hughes continues to produce and develop marine instruments for commercial and military use. This model compass is a good example of the commercial type of instruments made by Kelvin & Hughes after the world war 2, it was made in numbers for use on various types of shipping after the second world war and is not particularly rare or significant for it's type. Also it was made no earlier than 1947 as the firms of Kelvin, Bottomley & Baird Ltd and Henry Hughes & Sons Ltd who took over from Smith & Sons were not amalgamated until 1947. Given that Smith and Sons is engraved on the compass with Kelvin & Hughes it can be assumed that this compass was made during the company's transitional period to Kelvin & Hughes.Compass, marine or ship's card compass, gimble mounted, with inscriptions. Type is Lord Kelvin 10 inch compass card. Made in Great Britain by Kelvin Hughes Division of S. Smith & Sons (England) Ltd. "LORD KELVIN 10.", "COMPASS GRID", "MANUFACTURED IN GREAT BRITAIN BY", "KELVIN HUGHES DIVISION", "S. Smith & Sons (England) Ltd".flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, marine compass, gimble compass, ship's compass, lord kelvin compass, smith and sons england ltd, henry hughes & son ltd london england, kelvin bottomley & baird ltd glasgow scotland, kelvin & hughes ltd, navigation instrument, scientific instrument, william thomson, james white, baron kelvin of largs

Hutchings family 1. Wimmera River in flood below Whitehall running a banker c. 1920. Ted & Col Hutchings in foreground. 2. Wimmera River in flood looking downstream. No date but possibly same time as no. 1. from same place. 3. Looking over the Wimmera River to Island paddock towards Greens Creek 4. Wimmera River half a banker at Whitehall 5. Wimmera River in flood upstream from carpenter's shop looking towards engine house at Whitehall 5a. Wimmera River in flood. Left to right - blacksmith shop and carpenters' shop. 5b. Taken from the same spot with Emily & Ada Hole, E G (Ted) & Col Hutchings. Blacksmith shop & carpenters' shop, Whitehall. 5c. Wimmera River upstream from the carpenters' shop. Foreground is possibly Belladonna lilies which were all over the river bank in 1992. Whitehall. 5d. Looking downstream towards the loose boxes, Whitehall. 5e. Blacksmiths' shop and carpenters' shop from the pumping station. Wimmera River, Whitehall. 6. Wimmera River in flood at Whitehall. 7. Wimmera River half a banker in front of old hut at Whitehall. 8. Wimmera River Emily Hayes, Edward G (Ted) Hutchings & Colin J Hutchings. 9. Morrl-Morrl - Greens Creek Road opposite back paddock. Whitehall. Black Ford in distance. c. 1919 10. Whitehall woolshed north east aspect, Drive to the right of photo 11. Whitehall woolshed - north east aspect showing the drive to the right 11a. Whitehall woolshed - north aspect 11b. Same tree near woolshed 11c. Same tree again in centre, other trees came up after the 23 flood. Woolshed to the right out of photo. 12. Whitehall woolshed - south aspect, sheep entrance end 13. Whitehall. left to right, Stackyard, stables in the centre and the Wimmera River behind following the trees. 14. Whitehall horse paddock c. 1920. left to right, Machinery shed, stable in the centre. Homestead to the right in distance. There is no windmill. 15. Load of wool from Whitehall woolshed to right. 16. Whitehall c. 1920 before the windmill. left to right, garage and mens' hut. Wimmera river runs along the tree line. 16a. Stables, garage and mens' hut after the construction of the windmill. River behind. 17. Whitehall c. 1922. Note windmill addition. Garage to left, Mens' Hut to right. Jack Donnelly & Edward G (Ted) Hutchings with pet lambs. River behind trees. 18. Whitehall gardens. Summer house to the right, pine tree lined drive in the centre background. Ted & Col Hutchings on the lawn. C. 1920 19. Edward G. (Ted) & Colin J. Hutchings in Whitehall garden. Wimmera River in the background. The building behind the fence is the carpenters' shop which the family lived in while house was rebuilt after fire 15 Jan 1877 20. Whitehall c. 1920. left to right, cattle yard, killing house, Wimmera river behind the fence, and the loose box on the right. Black Orpington chooks in foreground. 21. Bay window (original blinds) in the master bedroom. Whitehall 20 Sep 1992 22. Master bedroom (original wallpaper) Joyce & Col Hutchings, Moyu, Ben & Rebecca Roe 20 Sep 1992 23. Col & Ted's bedroom (original) Marble mantlepiece had been removed. Whitehall. 20 Sep 1992 24. Whitehall kitchen. Large yellow meat oven to left of stove, bread oven far left, extreme right is oven where milk heated to skim cream. Chimney was a central one shared with meat oven. Bread oven chimney separate. 20 Sep 1992 25. Whitehall dairy, made of natural stone with dried brick corners. Entrance behind creeper which is over trellis. 20 Sep 1992. This building still remains in 1 Jun 2023 26. Inside charcoal lined meat cellar. Bottom right is concrete vat for pickling meat in brine. Top of brickwork slightly above ground level. Whitehall 20 Sep 1992 27. Fire foreground was stable flooring which was to left of photo. Machinery shed (thatch roof). 4 posts far left remains of cowshed. Large post in centre foreground is the gate post of corral. River to right. 20 Sep 1992 28. Whitehall machinery shed. Posts on far right are cow shed. Over the river is the island paddock. Wimmera river runs behind machinery shed. 20 Sep 1992 29. Posts of 10 sided corral. Killing house by side of gum tree in centre of photo on far side of corral. To left is one of the bales of the cowshed. Whitehall. 20 Sep 1992 29a. Similar photo in the 1920's. To the right is horsebreaking corral, then cow shed, loose box, haystacks and stable on left. Whitehall. 30. Dining room fire place put in the open fire of the mens' hut, only the chimney remains. To the left is the drive & river. Rebecca Roe, Col Hutchings granddaughter. 20 Sep 1992 30a. Looking down the Whitehall Drive. Mens' Hut (Jack Donnelly in doorway) and garage far left. 1920's 30b. The Drive, Whitehall taken from in front of the mens' hut. Wimmera River on the left. Gum tree on left still there 20 Sep 1992. 30c. Reverse from 30a. Whitehall drive from the front gate looking towards the mens' hut and garage. c. 1926 30d. Curly Donohue leaving for Warracknabeal. Ex mail contractor Omeo to Bright Victoria. C. 1926 30e. Looking down the drive towards front gate. Mens' hut on the right, river on the left. 31. Whitehall from the side. Building in centre behind David is separater room. 2 roomed hut to left of separater room and remains of mens' hut chimney. Photo 16 taken from similar spot. 20 Sep 1992 32. Benjamin Roe (Col Hutchings grandson) in the Carpenters' shop. The family lived in this building after the fire in the 1870's. Whitehall 20 Sep 1992 33. Ford across the Wimmera River at Whitehall (River abt. 5 feet higher than normal) 20 Sep 1992 33a. Wimmera River, Whitehall 34. Site of old bridge before Col Hutchings time. Tree in foreground to right still has bolt from bridge work protuding. A large post was in the centre of photo to make equal distance. 20 Sep 1992 35. Entrance to the old ford. Colin J Hutchings & his daughter, Moyu Roe. Wimmera River, Whitehall 20 Sep 1992 36. Summer house at Whitehall 20 Sep 1992 looking down to the orchard, dark green trees in distance old fruit trees. 36a. Edward & Colin Hutchings in front of the Summer house, Whitehall c. 1921 36b. Summer house looking towards front gate. Whitehall. 36c. Grey thrush in nest box which can be seen in previous photo with summer house in the background. Whitehall. 36d. Summer house from the orchard side. Whitehall. 37a. South side of Whitehall. First window Edith Sutherland's room, 2nd window, Ted & Col's room, bay window master bedroom 38. Taken in middle of front path looking towards front gate. Edith Sutherland in garden. Date palm in centre, cotton palm to left. Whitehall c. 1920's 38a. Garden at Whitehall taken from near the cotton palm. 39. Whitehall 20 Sep 1992 Bay window-master bed, small window to r. of bay-Colin Hutchings born in, front door, window to right-dining room, round the corner- drawing room, window on right, spare bed, verandah on left is spare bed. 39a. Whitehall c. 1920's Date palm on the right. 39b. Win, Colin T & Colin J Hutchings. Date palm in background. Whitehall 1943 39c. Edward George, Colin Thomas, Elizabeth Ambler & Colin James Hutchings wearing RAAF uniform. Date Palm in background. Whitehall c. 1943 39c. Front garden of Whitehall looking from the front right side of the house towards the drive & Wimmera River. Date palm on right, cotton palm on left 20 Sep 1992 40. Taken from bottom left corner of front garden looking towards the summer house. Cotton palm on right. River to the left. 41. Elizabeth A Hutchings beside master bedroom window. Whitehall c. 1920 42. Whitehall (photo of a painting by Wallace) owned by Colin T Hutchings 1982. 42a. Whitehall painting by Wallace after restoration now owned by Nick Hutchings 2021 42b. Whitehall c. 1923 42c. Taken from the side garden looking towards the right side of house. Front door is to the left out of photo. The cotton palm is to the left. c. 1923 43. Signpost showing Whitehall 20 Sep 1992, All ground up to the tree line behind the signpost was Whitehall property. 44. Colin T. Hutchings age 9 mths. Mar 1943 Whitehall 45. Colin James, Elizabeth Ambler & Edward George Hutchings. Front garden by the date palm, Whitehall c. 1939-40 45a. Colin James, Edward George, Edward Thomas Hutchings & E. Winifred May & Barney (dog) Whitehall. c. 1939-40. 45b. Colin James & Colin Thomas Hutchings during drought & World War ll c. 1944-45 in front of cotton palm, date palm to right. 46. Garden at Whitehall. Jack Donnelly on the hand mower. Cotton palm on left, date palm behind Jack and roof of carpenters shop to right. 47. Colin J Hutchings on tractor, E. Tom Hutchings behind. Whitehall, c. 1933 48. Jack Donnelly (Tad) & Colin J. Hutchings. Cotton palm to right. Whitehall c. 1917-18 49. Edward G (Ted) & Colin J Hutchings with cockatoo outside the dairy in rear garden. Whitehall c. 1923 50. Taken from the windmill looking across the roof of the mens' hut to the garden, orchard and drive in Winter time. House is behind the trees to right, Wimmera River to the left out of picture. Whitehall. 50a. Not labelled by Col Hutchings. It is an aerial shot looking towards the house in the trees & seems to be taken from the top of a tree...on the river side. 51. E. Tom Hutchings & George Chambers dam sinking. Whitehall. 51a. Tom Hutchings & George Chambers dam sinking. Whitehall. 51b. E. Tom Hutchings dam sinking. 52. Emily Hayes & Ada Hole (sisters) with Tom, Col & Ted Hutchings at the woolshed. 53. E T (Tom) Hutchings on reaper & binder. Whitehall. 54. Orchard looking towards the house. Carpenters' shop and river on the right. Whitehall. 54a. Orchard looking from the house, dark trees in background form part of the drive. 55. Grasshopper plague, Christmas Day 1933. Whitehall 56. Frost on the front lawn, Whitehall. 57. Little red hen & chicks with the river in the background 58. Edward (Ted) G. Hutchings muscovy ducks, hay shed and trees along the river in the background. 58a. Edward (Ted) G Hutchings muscovy ducks. 59. Swimming in the Wimmera River, either Ted or Col Hutchings in the foreground. 60. Looking towards the fowl house and pigsty, Whitehall. 61. Snake on the path, Whitehall. c. 1923 61a. E. Tom Hutchings killing a snake, Whitehall. c. 1923 61b. E. Tom Hutchings killing a snake, Whitehall. c. 1923 62. Notice of clearing sale, Stawell News & Pleasant Creek Chronicle on 5 Apr 1916 where the stock & whole of the household furniture was to be sold by James Hutchings widow. 63. Back to Greens Creek 7 Jun 1987 Colin J Hutchings left and Belle Kindred centre looking at photo 64. Back to Greens Creek 7 Jun 1987 Colin J Hutchings centre, Graham Stewart holding photograph on the right. 65. Colin J Hutchings & Bill Walker. Back to Greens Creek 7 Jun 1987 66. Colin J Hutchings delivering a speech before the plaque unveiling. Back to Greens Creek 7 Jun 1987 67. Graeme Williamson & Colin J Hutchings (2 'old boys') Greens Creek School Site 7 Jun 1987 68. Graeme Williamson talking to Moyu Roe (Hutchings) in background is May Williamson. Back to Greens Creek 7 Jun 1987 69. Greens Creek SS, Edward (Ted) & Colin J Hutchings attended. 70. Original students of first Greens Creek School 7 Jun 1987 Back row left 1. Kindred 3. Colin J Hutchings 4,5,6 not known 7. Graeme Williamson Sitting left 1. Not an original 2,3,4, not known 5. Belle Kindred 71. Terrier at Greens Creek State School 72. The new school students Back to Greens Creek 7 Jun 1987. Perry twins standing in centre and the teacher kneeling front left. 73. Will Rees water colour 1925 signature 74. Will Rees water colour 1925 75. Shearing at Kirkellar. Allen Simpson's 76. Back to Greens Creek 7 Jun 1987 Colin J Hutchings left and Belle Kindred centre looking at photo 77. Back to Greens Creek 7 Jun 1987 Colin J Hutchings centre, Graham Stewart holding photograph on the right. 78. Colin J Hutchings & Bill Walker. Back to Greens Creek 7 Jun 1987 79. Colin J Hutchings delivering a speech before the plaque unveiling. Back to Greens Creek 7 Jun 1987 80. Graeme Williamson & Colin J Hutchings (2 'old boys') Greens Creek School Site 7 Jun 1987 81. Graeme Williamson talking to Moyu Roe (Hutchings) in background is May Williamson. Back to Greens Creek 7 Jun 1987 82. Greens Creek SS, Edward (Ted) & Colin J Hutchings attended. 83. Original students of first Greens Creek School 7 Jun 1987 Back row left 1. Kindred 3. Colin J Hutchings 4,5,6 not known 7. Graeme Williamson Sitting left 1. Not an original 2,3,4, not known 5. Belle Kindred 84. Shearing at Kirkellar. Allen Simpson's 85. Terrier at Greens Creek State School 86. The new school students Back to Greens Creek 7 Jun 1987. Perry twins standing in centre and the teacher kneeling front left. Digital Copy of Parish Maps Kara Karahomestead

Navigators use parallel rule with maps and charts for plotting a specific course on a chart. One long edge is used with the compass rose on the chart, aligning the centre of the rose with the desired direction around the edge of the rose. The compass bars are then ‘walked’ in and out across the map to the desired location so that lines can be plotted to represent the direction to be travelled. Kelvin Company History: The origins of the company lie in the highly successful and strictly informal relationship between William Thomson (1824-1907), Professor of Natural Philosophy at Glasgow University from 1846-1899 and James White, a Glasgow optical maker. James White (1824-1884) founded the firm of James White, an optical instrument maker in Glasgow in 1850 and was involved in supplying and mending apparatus for Thomson university laboratory and working with him on experimental constructions. White was declared bankrupt in August 1861 and released several months later. In 1870, White was largely responsible for equipping William Thomson laboratory in the new University premises at Gilmore hill. From 1876, he was producing accurate compasses for metal ships to Thomson design during this period and this became an important part of his business in the last years of his life. He was also involved in the production of sophisticated sounding machinery that Thomson had designed to address problems encountered laying cables at sea, helping to make possible the first transatlantic cable connection. At the same time, he continued to make a whole range of more conventional instruments such as telescopes, microscopes and surveying equipment. White's association with Thomson continued until he died. After his death, his business continued under the same name, being administered by Matthew Edwards until 1891 when he left to set up his own company. Thomson who became Sir William Thomson and then Baron Kelvin of Largs in 1892, continued to maintain his interest in the business after James White's death in 1884, raising most of the capital needed to construct and equip new workshops in Cambridge Street, Glasgow. At these premises, the company continued to make the compass Thomson had designed during the 1870s and to supply it in some quantity, especially to the Admiralty. At the same time, the firm became increasingly involved in the design, production and sale of electrical apparatus. In 1899, Lord Kelvin resigned from his University chair and became, in 1900, a director in the newly formed limited liability company Kelvin & James White Ltd which had acquired the business of James White. At the same time Kelvin's nephew, James Thomson Bottomley (1845-1926), joined the firm. In 1904, a London branch office was opened which by 1915 had become known as Kelvin, White & Hutton Ltd. Kelvin & James White Ltd underwent a further change of name in 1913, becoming Kelvin Bottomley & Baird Ltd. Hughes Company History: Henry Hughes & Sons were founded in 1838 in London as a maker of chronographic and scientific instruments. The firm was incorporated as “Henry Hughes & Sons Ltd” in 1903. In 1923, the company produced its first recording echo sounder and in 1935 a controlling interest in the company was acquired by S Smith & Son Ltd resulting in the development and production of marine and aircraft instruments. Following the London office's destruction in the Blitz of 1941, a collaboration was entered into with Kelvin, Bottomley & Baird Ltd resulting in the establishing “Marine Instruments Ltd”. Following the formal amalgamation of Kelvin, Bottomley & Baird Ltd and Henry Hughes & Sons Ltd in 1947 to form Kelvin & Hughes Ltd. Marine Instruments Ltd then acted as regional agents in the UK for Kelvin & Hughes Ltd who were essentially now a part of Smith's Industries Ltd founded in 1944 and the successors of S Smith & Son Ltd. Kelvin & Hughes Ltd went on to develop various marine radar and echo sounders supplying the Ministry of Transport, and later the Ministry of Defence. The firm was liquidated in 1966 but the name was continued as Kelvin Hughes, a division of the Smiths Group. In 2002, Kelvin Hughes continues to produce and develop marine instruments for commercial and military. This model parallel map ruler is a good example of the commercial diversity of navigational instruments made by Kelvin & Hughes after World War II. It was made in numbers for use by shipping after the second world war and is not particularly rare or significant for it's type. Also it was made no earlier than 1947 as the firms of Kelvin, Bottomley & Baird Ltd and Henry Hughes & Sons Ltd who took over from Smith & Sons were not amalgamated until 1947. It can therefor be assumed that this ruler was made during the company's transitional period to Kelvin & Hughes from Smith Industries Ltd.Brass parallel rule in wooden box with blue felt lining.Rule inscribed on front "Kelvin & Hughes Ltd" " Made in Great Britain"flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, parallel rule, kelvin & hughes ltd, map ruler, plot direction, navigation, maps, echo sounder, kelvin & james white, lord kelvin, baron kelvin of largs, scientific instrument

A smoothing plane is typically used after the work piece has been flattened and trued by the other bench planes, such as the jack, fore, and joiner planes. Smoothing planes can also be used to remove marks left by woodworking machinery. When used effectively alongside other bench planes, the smoothing plane should only need a handful of passes removing shavings as fine as 0.002 inches (0.051 mm) or less. The work piece is then ready to be finished, or can be further refined with a card scraper or sandpaper. The smoothing plane is usually held with both hands, and used in a similar manner to the other bench planes. Though designed for smoothing, a smoothing plane can be used as an 'all-round' bench tool and for rougher work depending on how it is set up. Being smaller than other bench planes, the smoothing plane is better able to work on smaller work pieces and around obstructions. Since the 1700s wooden smoothing planes have predominantly been 'coffin shaped' wider in the middle and slightly rounded making them more maneuverable. It has also been claimed that the coffin design exposes more end grain, enabling the plane to better adjust to changes in humidity. John Moseley & Son: Records indicate that before 1834, the firm is listed at number 16 New Street, London and according to an 1862 advertisement the shop had been established in New Street since 1730, The Sun insurance records from the time show that John Moseley was the possessor of a horse mill in the yard of his premises, which means that some kind of manufacturing was taking place, as the mill would have provided power to run a saw or perhaps a grinding wheel so the probability is that he did not just sell tools, he made them as well. John Moseley died in 1828 and his will he names his four sons: John, Thomas, William and Richard. To complicate matters he also had brothers with the same first names; brothers Richard (of Piccadilly) and William (of Peckham Rye) are named as two of the executors. Brother Thomas is not mentioned in this will, but became a minister and was one of the executors of brother Richard’s estate when he died in 1856. From John’s will, we also learn that, although the shop was in New Street, he resided in Lympstone, Devon. The family must have had a house in that county for quite some time as both sons Richard and William are baptised in Devon, although John and Thomas were baptised in London. In the 1841 and 1851 census records, we just find William in New Street, but in 1861 both William and Richard are listed there as toolmakers. That Richard was staying overnight at New Street was probably just accidental as in 1851 and 1871, we find him with his wife Jane and children in Clapham and Lambeth respectively. In 1851 Richard is listed as “assistant clerk cutlery warehouse” and in 1871 as “retired plane maker and cutler”. Although the actual place of work is not stated, one may assume he worked in the family business. 1862 is a year full of changes for the firm. In that year, William had a new property built at 27 Bedford Street. In the catalogue for the 1862 International Exhibition, 54 Broad Street (later 54-55 Broad Street) is listed for the first time, which may very well coincide with the split of the business into a retail and a wholesale branch. Around the same time, they must have moved from New Street to 17 & 18 King Street because their manufacturing premises had been pulled down to form the New Street from Cranbourne Street to King Street. In January 1865, William died and Richard continued the business. In 1867, the partnership he had with his son Walker and Thomas Elis Hooker, is dissolved. Richard continued tool making at King Street and Bedford Street. Richard retired somewhere between 1867 and 1871, but the business continued. The business is taken over by W M Marples & Sons and tools continued to be made in London until 1904 when manufacturing relocated to Sheffield. A vintage tool made by a well documented company, this item was made commercially for firms and individuals that worked in wood and needed a tool that could produce a smooth finish to timber. The tool was used when timber items needed to have a smooth finish these types of planes were used in conjunction with profiled planes that provided a decorative finish. A significant tool from the mid to late 19th century that today is quite rare and sought after by collectors. It gives us a snapshot of how furniture and other decorative finishes were created on timber by the use of hand tools. Tools that were themselves hand made shows the craftsmanship used during this time not only to make a tool such as the subject item but also the craftsmanship needed to produce a decorative finish that was needed to be made for any timber item. Smoothing Plane coffin design Maker J Moseley & Son London & 2 1/4"flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, plane moulding, moulding plane, plane, j heath, moseley

The woollen mill was a vital part of Warrnambool for all but 22 years of the town’s history since it's the establishment in 1847 when the first land sales were held and white settlement began. In 1869 the Warrnambool Meat Preserving Company began operations on the mill site, in 1875, shareholders of the then defunct Warrnambool Meat Preserving Company happily sold the land and buildings on the Merri river to Warrnambool Woollen Mill Company Ltd for £5,000. The site was sold again in 1876 to grazer Robert Hood of Sherwood, who was chairman of directors of the failed company, which couldn’t raise sufficient capital to keep the works operating. The entrepreneurial Hood then used the existing plant to turn his own wool into tweed cloth. But just as the mill was starting to show a profit, a fire destroyed the building and plant on the night of 25 March 1882. So again, the mill was operational for six short years. Insurers only paid a fraction over 10% of the damage, Hood couldn't raise sufficient capital to rebuild on his own, and so the site lay unused until 1910. In 1908 Marcus Saltau and Peter John McGennan convinced the Warrnambool Chamber of Commerce to invest in a secondary industry with local capital. A public meeting in September 1908 agreed to raise £40,000, electing Saltau chairman of directors, a post he held for 34 years. A year later, using mostly local money, the Warrnambool Woollen Mill Company dispatched its first manager, John E. Bennett, to buy a plant and recruit 20 experienced staff from the Yorkshire woollen industry in December 1909. Another year more, the new mill was officially opened on 14 November 1910 by Marcus Saltau as company chairman and town mayor. Eighteen months on, in May 1912, the mill paid its first half-yearly dividend of 2 ½%. It was now working two shifts, with a year's orders to fill. In 1914 the mill ordered its own generator, providing the town with electricity and effectively doubling its plant size by October 1915, six months after Gallipoli. Thereafter, government orders for cloth and military supplies assured the mill’s success right through the First World War and on until 1923. A plant upgrade in 1922 for machinery to make worsted fabric drained profits, which, with a fall in demand, led to a loss in 1925. Profits were restored by the 1930s, despite the Depression, mostly due to tight management and robust marketing. Production boomed again during the Second World War, but soon foreign competition bit into profits, forcing the company to consolidate operations. The ‘50s and ‘60s were golden years for the mill. Security and growth gave the company confidence to trial Australia’s first electric blanket in 1958 and to install Swiss Sulzer looms in 1965. Over time, the building facades took on the modern look that the mill presented until it closed. The Dunlop company bought the mill in 1968, fending off a challenge from Onkaparinga in South Australia, and continued to expand by adding Wendouree Woollen Mill in the same year and Dream-spun Textiles a decade later, in 1979. Soon after that purchase, however, the mill began its slippery slide into decline. Dunlop sold to its former rival bidder Onkaparinga Woollen Co. Ltd in 1982, which in turn was taken over by Macquarie Worsted's only a year later, in 1983. Operations remained stable for a decade until 1994 when the Macquarie Group signaled that its newly rationalised operations left no room for the Warrnambool investment. The final operator of the mill was The Smith Family charity group, which ran the site by agreement with the Warrnambool City Council and a state government grant in that same year, 1994. The mill became more of a fabric recycler than a manufacturer. The site was sold to private operators in February 2003 and rezoned four months later to allow for the mixed housing development. The embossing press is significant for its association with the Warrnambool Woollen Mills 1910-1968, a major employer in the Warrnambool district. The press is also significant as an example of commercial office equipment used in the 19th and 20th century.Press, metal, for Company seal of Warrnambool Woollen Mill, stamping their brand as Western District Worsted Mills Pty Ltd. Metal is black with red and gold floral markings. Inscription of stamp reads "WESTERN DISTRICT WORSTED MILLS PROPRIETRY LIMITED" flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, warrnambool woollen mills, western district worsted mills proprietry limited, worsted fabric, printing press, logo printing press, stamp printing press, shipwreck-coast, flagstaff-hill-maritime-village

Built by noted artist Theodore Penleigh Boyd, father of architect Robin Boyd. Covered under National Estate, National Trust of Australia (Victoria) Local Significance and Heritage Overlay, Nillumbik Planning Scheme. Published: Nillumbik Now and Then /​ Marguerite Marshall 2008; photographs Alan King with Marguerite Marshall.; p111 The Robins at Warrandyte,* was once home to a member of a famous family and is also one of the first reinforced concrete houses in Victoria. The builder, Theodore Penleigh Boyd, born in 1890, was a talented painter1 noted for his works of the Warrandyte bush. He was the father of architect Robin Boyd, author of the Australian Ugliness and the uncle of painter, Arthur Boyd. Penleigh Boyd’s great grandfather was Sir William A’Beckett, Victoria’s first Chief Justice. Penleigh Boyd is considered by some to be an ‘unsung hero’ overshadowed by more famous members of his family. Mornington Gallery Director Andrea May said many believed Boyd ‘had never received the national acclaim that he deserved’.2 Classified by the National Trust3 and part of the Australian National Heritage,4 The Robins is set well back near the end of Kangaroo Ground – Warrandyte Road, unobserved by passers-by. Built in 1913, The Robins has some Art Nouveau influences and is a descendant of the Queen Anne style. It is covered in stucco and has a prominent attic, which Boyd used as a studio. Some parts of the house are up to 33 centimetres thick and built in part with pisé (rammed earth) and in part with reinforced concrete. Amazingly, Boyd built The Robins without an accessible driveway, and only a narrow track along which he had to cart building materials. The journey was uphill and Boyd terraced the land with Warrandyte rock5 without the aid of machinery. At only 33 years, Boyd was killed in a car accident in 1923. He was buried in Brighton near the home of his parents. Several people have since owned the house, including political journalist, Owen Webster. Boyd was born at Penleigh House, Wiltshire, and studied at Haileybury College, Melbourne and The Hutchins School, Hobart. He attended the Melbourne National Gallery School and in his final year exhibited at the Victorian Artists’ Society. He arrived in London in 1911 and his painting Springtime was hung at the Royal Academy. He painted in several studios in England and then worked in Paris.6 There he met painter Phillips Fox through whom he met artists of the French modern school and also his wife-to-be, Edith Anderson, whom he married in Paris in 1912. After touring France and Italy, the couple returned to Melbourne. In 1913 Boyd held an exhibition and won second prize in the Federal Capital site competition, then the Wynne Prize for landscape in 1914. In 1915 Boyd joined the Australian Imperial Force, and became a sergeant in the Electrical and Mechanical Mining Company. However he was severely gassed at Ypres and invalided to England. In 1918 in London Boyd published Salvage, writing the text and illustrating it with 20 black-and-white ink-sketches of army scenes. Later that year he returned to Melbourne, and, despite suffering from the effects of gas, he held several successful one-man shows, quickly selling his water-colour and oil paintings. In his short career Penleigh Boyd was recognized as one of Australia’s finest landscape painters. He loved colour, having been influenced early by Turner and McCubbin. His works are in all Australian state galleries, the National Collection in Canberra as well as in regional galleries.7 His wife Edith was also an artist having studied at the Slade School, London, and in Paris with Phillips Fox. After her marriage she continued to paint and excelled in drawing. In later years she wrote several dramas, staged by repertory companies, and radio plays for the Australian Broadcasting Commission, in which she took part. She was the model for the beautiful red-haired woman in several of Phillips Fox’s paintings and the family hold three of his portraits of her. *Possibly named after the Aboriginal words warran, meaning ‘object’ and dyte, meaning ‘thrown at’.This collection of almost 130 photos about places and people within the Shire of Nillumbik, an urban and rural municipality in Melbourne's north, contributes to an understanding of the history of the Shire. Published in 2008 immediately prior to the Black Saturday bushfires of February 7, 2009, it documents sites that were impacted, and in some cases destroyed by the fires. It includes photographs taken especially for the publication, creating a unique time capsule representing the Shire in the early 21st century. It remains the most recent comprehenesive publication devoted to the Shire's history connecting local residents to the past. nillumbik now and then (marshall-king) collection, kangaroo ground-warrandyte road, north warrandyte, the robins

The Davey Paxman Experimental Steam Engine was purchased by the Ballarat School of Mines as the result of a bequest from Thomas Bath.The Davey Paxman Experimental Steam Engine was purchased as the result of a bequest from Thomas Bath. The 'substantial sum' was used to build an Engineering Laboratory. The Ballarat School of Mines Council minutes of 08 November 1901 record: - Plans for [the] proposed building were submitted ... and ... it was resolved that a temporary building for an Engineering Laboratory be put up.' This laboratory, as an existing building, is first mentioned in the Ballarat School of Mines President's Annual Report of 1901, presented on 28 February 1902, reporting 'the erection of a building 67ft long by 33 ft wide' This report also lists all the equipment that would be accommodated in the Engineering Laboratory, including the experimental steam engine and boiler. The experimental Davey-Paxman steam engine arrived in Ballarat towards the end of 1902. The Engineering Laboratory was opened on 14 August 1903 by His Excellency Sir Sydenham Clarke. This engineering laboratory remained in use till about 1945. By 1944 preparations were under way at the Ballarat School of Mines to expand existing facilities, to be ready for the influx of returned soldiers. A new Heat Engines laboratory was built, this time of brick construction, replacing the previous corrugated-iron shed. In the early stages the steam engine was used to drive an overhead transmission shaft for machinery in the adjacent workshop. Later the steam engine was moved to a space that became the Heat Thermodynamics Laboratory. At the end of 1969 the engine was relocated to the Thermodynamics Laboratory at the then Ballarat Institute of Advanced Education (BIAE) Mt Helen Campus. It was donated to Sovereign Hill in 2006. According to the research of Rohan Lamb in 2001 around five experimental steam engines were made by Davey Paxman, and three of these had similar configuration to the Ballarat School of Mines Steam Engine, however, each of these was also unique with different valve arrangements. The list, which was on a scrap of paper in a folio held in the Essex Archives, confirmed that one was sent to India. The Ballarat steam engine can be dated to late 1901 to early 1902. Zig Plavina was responsible for moving the steam engine to Mount Helen, and worked on it as a technician for many years. He observed the following: * The condenser is driven by the low pressure engine. * The following arrangements are possible: i) the high pressure engine alone, exhausting to atmosphere. Condenser not used, crankshaft flanges not coupled. ii) crankshafts coupled, mains pressure (120 psi) steam supplied to high pressure engine, partially expanded steam delivered to low pressure engine (Tandem operation). Choice available re exhaust steam: either to the condenser or to atmosphere. iii) crankshafts not coupled, reduced pressure steam supplied to low pressure engine. Exhaust steam - either to the condenser or to atmosphere. * Valve arrangement - a choice of Pickering cut-off or throttle governor. On low pressure engine - throttle governor only.davey paxman experimental steam engine, model steam engine, steam, thermodynamics laboratory, thomas bath, bequest

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

The design of the bottle is called a Codd, sometimes referred to as a marble bottle or "Codd's patent bottle". During the mid-to-late 1800s, there were many inventions to keep the fizz in carbonated drinks such as ginger ale, soda water, and fruit drinks. Hiram Codd, an English engineer invented a successful process that he patented as "Codd's patented globe stopper bottle" in 1872. The Codd-neck bottle (commonly called Codd or marble bottle) is manufactured in two parts. The body of the bottle is cast in two sections. At the time of joining the sections, glass marble and rubber seal are inserted into the neck section. The lip is then applied to the top of the bottle. The Codd bottle is filled upside down as the pressure of the gas from the carbonated liquid holds the marble up and out of the way. When the bottle stands upright the gas pushes the marble up against the washer, creating a firm seal to keep the fizz inside. The bottle is opened by pushing the marble down firmly to allow some of the gas to escape. The marble drops down and is caught in a depression formed in the neck. When the bottle is tilted to pour or drink the liquid the marble rests in a dimple. Two Ballarat miners, Evan Rowland and Robert Lewis started manufacturing mineral and aerated waters, bitters, cordials, and liqueurs in 1854, in a tent on the shores of Lake Wendouree Ballarat. Another 13 firms at that time employed manual operations, whereas they introduced Taylor's No. 1 machine that speeded up the process and laid the foundation for their fortune. Evan Rowland was a pioneer in the aerated water trade in Australia. He was born on August 2, 1826, in North Wales. In 1852, during the gold rush, he emigrated to Melbourne, and in 1854 he went to Ballarat and formed a partnership with Robert Lewis, the firm being called ‘‘Rowlands & Lewis’’. Their next step was to secure a supply of pure water. Using mineral Waters that they found via a natural spring at Warrenheip, Victoria. From the outset, the beverages made from this water gained repute and were in great demand. Their business prospered so well that in 1858 they were able to build a factory at the corner of Sturt and Dawson Streets, Ballarat, and to fit with the most up-to-date machinery then in use. By 1870 their business had increased so much and demand had grown to such an extent that Mr. Rowlands erected another factory, covering over an acre of ground at the corner of Dana and Doveton Streets, costing £13,000. The factory was fitted with the most modern equipment of the time to manufacture cordials and aerated water. In 1873 Rowlands established an agency at 116 Collins St, Melbourne, because the demand for the products of the Melbourne factory became so large. The company expanded to Sydney opening a factory at the corner of Burns & Hay Streets Darling Harbour obtaining spring water to supply this plant from Katoomba in the Blue Mountains. The water was brought to Sydney by rail. In the meantime, the Melbourne concern had progressed so rapidly that in 1888 a magnificent factory embodying all the latest ideas and equipment was built in King Street Melbourne. Robert Lewis was a fellow Welshman born in 1816, and he arrived in Port Phillip in 1853 and became a partner in the early day with Evan Rowland but with lesser and shorter involvement in the firm, from which he retired in 1876. Robert Lewis was perhaps better known as Ballarat's first mayor and a Member of the Legislative Assembly. He was a strong supporter of local charities, president/treasurer of the Eisteddfod Committee, a major force in the development of the Ballarat Hospital, and he was the mayor of Ballarat five times, the first in 1863, (having been a counsellor as early as 1859) and for the last time in 1881. Lewis died in 1884 of a stroke in Ballarat. Rowlands continued in the firm and invented and patented an improved soda water bottle. The water used in Rowlands products was filtered four times but his attempts to use local corks failed on quality grounds. He was a stickler for quality, which was so good that many outside Victoria were prepared to pay the 'premium' imposed by inter-colonial customs duty payable at that time. By the 1890s, Rowlands had factories in Ballarat, Melbourne, Sydney, and Newcastle. He died in 1894 but his company continued until well after the Second World War when it was sold to Schweppes.An early manufacturing process producing the first mineral waters in Australia was invented and developed by an early Welsh migrant to Australia. The Evan Rowlands story gives an insight into the early development of manufacturing industries in Australia that allowed their workers and the towns they were situated in to prosper and develop into what they are today. Bottle; clear glass Codd neck bottle with small marble in top. Once contained soda water or soft drink. Manufactured in 1921 by E. Rowlands of Ballarat, Melbourne, Katoomba and Sydney. The bottle is 'recyclable' - the message on the base says that it remains the property of E. Rowlands Pty Ltd."E. ROWLANDS BALLARAT MELBOURNE KATOOMBA AND SYDNEY". Imprinted into bas "1921" "THIS BOTTLE REMAINS THE PROPERTY OF E. ROWLANDS PTY LTD"flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, bottle, codd bottle, hiram codd, glass marble bottle, e. rowlands bottle manufacturer, soda bottle australia, early recyclable bottle, codd's patent bottle, marble bottle

In 1975, divers from Flagstaff Hill, found an ornate communion set used to celebrate the Eucharist or holy communion by a number of different Christian faiths was recovered from the wreck of the Schomberg. The set comprised a jug, two chalices, a plate and a lid. The lid did not fit any of the other objects and in 1978 a piece of the lid broke off, revealing a glint of gold. As museum staff carefully examined the lid and removed marine growth, they found a diamond ring, which is currently on display in the Great Circle Gallery at Flagstaff Hill. The collection of artefacts from the Schomberg also contains ship fittings and equipment, personal effects, a lithograph, tickets and a photograph from the Schomberg. Most of the artefacts were salvaged from the wreck by Peter Ronald a former director of Flagstaff Hill maritime museum. The Schomberg was a large three-masted full-ship rigged wooden ship built in 1855 by Alexander Hall and Co in Aberdeen, Scotland for James Baines' famous Black Ball Line at £43,103. The vessel was 288 feet (88 meters) in length, with a beam of 45 feet (14 meters), a depth of 29.5 feet (8.99 meters) of 2,284 tons. The mainmast was 210 feet (64 meters) high and she carried 3.3 acres of sail. The vessel was constructed with three skins. One planked fore and aft, and two diagonally planked, fastened together with screw-threaded trunnels (wooden rails). The Schomberg is one of only three clipper wrecks in Victorian waters that operated the England to Australia run. While the other two, Empress of the Sea and Lightning, were built by the famous American shipbuilder, Donald Mac Kay. Schomberg was an attempt to build a faster ship than Mac Kay and a vessel fast enough to break the sailing record to Australia. The Schomberg sailed on her maiden voyage from Liverpool on 6 October 1855, under the command of Captain James Forbes, on its maiden voyage to Australia with a general cargo, jewellery, spirits, machinery, and 2,000 tons of 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, plus 90,000 gallons of water for washing and drinking. She also carried 17,000 letters and 31,800 newspapers. There were approximately 473 passengers and a crew of 105. It was hoped that Schomberg would make Melbourne in sixty days, setting a record for the voyage, but light winds at the equator dashed those expectations. The ship sighted Moonlight Head in south west Victoria on Christmas Day but through a deadly combination of wind, currents and unmarked sand spits, the vessel gently ran aground on 26 December 1855 on a spit that juts into Newfield Bay, just east of Curdies Inlet, and the present town of Peterborough. Fortunately, the SS Queen was nearby and managed to save all passengers and crew. The steamers Keera and Maitland were dispatched to salvage the passenger's baggage and the more valuable cargo. Other salvage attempts were made, but deteriorating weather made the work impossible, and within two weeks the Schomberg's hull was broken up and the vessel abandoned. The wrecking of the Schomberg caused quite the public stir particularly in light of the fact the vessel was supposed to be, the most perfect clipper ship ever built. Captain Forbes was charged in the Supreme Court under suspicion that he was playing cards with two female passengers below decks when his ship ran aground. Despite a protest meeting, two inquiries and the court proceedings, he was found not guilty and cleared of all charges. In 1975, divers from Flagstaff Hill, including Peter Ronald, found an ornate communion set at the wreck. The set comprised a jug, two chalices, a plate and a lid. The lid did not fit any of the other objects and in 1978 a piece of the lid broke off, revealing a glint of gold. As museum staff carefully examined the lid and removed marine growth, they found a diamond ring, which is currently on display in the Great Circle Gallery at the Flagstaff Hill Maritime museum that also displays ship fittings and equipment, personal effects. Most of the artefacts were salvaged from the wreck by Peter Ronald, former director of Flagstaff Hill.This chalice is significant as an example of an item in common use in the mid-19th century that is still in use today. The Schomberg has historical significance as one of the first luxurious ships built to bring emigrants to Australia to cash in on the gold rush era. And is included on the Victorian Heritage Register (VHR S612). The collection of Schomberg artefacts held at Flagstaff Hill Museum is primarily significant because of the relationship between these recovered items having a high potential to interpret the story of the Schomberg and its foundering during a storm. The shipwreck is of additional historical significance for representing aspects of Victoria’s shipping history and for its association with the first passenger ship, which was designed not only to be the fastest and most luxurious of its day but foundered on its maiden voyage to Australia.Chalice; electroplated silver metal over metal, possibly nickle. The chalice has a wide bowl with an outer layer of intricately cut metal on the underside and a ribbon-like border of grapes and grapevine leaves is etched around it. It is supported by a tall stem with a circular knob partway down its length, and the stem is attached to a round base that is hollow underneath. The decorative pattern around the perimeter of the base is repeated on the knob on the stem. The base also has a pattern of lines around the vertical edge. There is a white sticker attached to the underside of the base. Its inscription is undecipherable. The chalice is part of a Communion set that was recovered from the wreck of the Schomberg. White sticker attached to the base of the chaliceflagstaff hill, flagstaff hill maritime museum and village, warrnambool, maritime museum, maritime village, great ocean road, shipwreck coast, schomberg, 1855, clipper ship, james baines & co, black ball line, luxury ship, emigrant ship, captain forbes, bully forbes, ss queen, peterborough shipwreck, communion set, religious service, communion service, ceremonial service, mass, chalice

In 1975, divers from Flagstaff Hill, found an ornate communion set used to celebrate the Eucharist or holy communion by a number of different Christian faiths was recovered from the wreck of the Schomberg. The set comprised a cruet or jug, two chalices, a plate and a lid. The lid did not fit any of the other objects and in 1978 a piece of the lid broke off, revealing a glint of gold. As museum staff carefully examined the lid and removed marine growth, they found a diamond ring, which is currently on display in the Great Circle Gallery at Flagstaff Hill. The collection of artefacts from the Schomberg also contains ship fittings and equipment, personal effects, a lithograph, tickets and a photograph from the Schomberg. Most of the artefacts were salvaged from the wreck by Peter Ronald a former director of Flagstaff Hill maritime museum. The Schomberg was a large three-masted full-ship rigged wooden ship built in 1855 by Alexander Hall and Co in Aberdeen, Scotland for James Baines' famous Black Ball Line at £43,103. The vessel was 288 feet (88 meters) in length, with a beam of 45 feet (14 meters), a depth of 29.5 feet (8.99 meters) of 2,284 tons. The mainmast was 210 feet (64 meters) high and she carried 3.3 acres of sail. The vessel was constructed with three skins. One planked fore and aft, and two diagonally planked, fastened together with screw-threaded trunnels (wooden rails). The Schomberg is one of only three clipper wrecks in Victorian waters that operated the England-to-Australia run. While the other two, Empress of the Sea and Lightning, were built by the famous American shipbuilder, Donald Mac Kay. Schomberg was an attempt to build a faster ship than Mac Kay and a vessel fast enough to break the sailing record to Australia. The Schomberg sailed on her maiden voyage from Liverpool on 6 October 1855, under the command of Captain James Forbes, on its maiden voyage to Australia with general cargo, jewellery, spirits, machinery, and 2,000 tons of 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, plus 90,000 gallons of water for washing and drinking. She also carried 17,000 letters and 31,800 newspapers. There were approximately 473 passengers and a crew of 105. It was hoped that Schomberg would make Melbourne in sixty days, setting a record for the voyage, but light winds at the equator dashed those expectations. The ship sighted Moonlight Head in southwest Victoria on Christmas Day but through a deadly combination of wind, currents and unmarked sand spits, the vessel gently ran aground on 26 December 1855 on a spit that juts into Newfield Bay, just east of Curdies Inlet, and the present town of Peterborough. Fortunately, the SS Queen was nearby and managed to save all passengers and crew. The steamers Keera and Maitland were dispatched to salvage the passenger's baggage and the more valuable cargo. Other salvage attempts were made, but deteriorating weather made the work impossible, and within two weeks the Schomberg's hull was broken up and the vessel abandoned. The wrecking of the Schomberg caused quite a public stir, particularly in light of the fact the vessel was supposed to be, the most perfect clipper ship ever built. Captain Forbes was charged in the Supreme Court under suspicion that he was playing cards with two female passengers below decks when his ship ran aground. Despite a protest meeting, two inquiries and the court proceedings, he was found not guilty and cleared of all charges. In 1975, divers from Flagstaff Hill, including Peter Ronald, found an ornate communion set at the wreck. The set comprised a jug, two chalices, a plate and a lid. The lid did not fit any of the other objects and in 1978 a piece of the lid broke off, revealing a glint of gold. As museum staff carefully examined the lid and removed marine growth, they found a diamond ring, which is currently on display in the Great Circle Gallery at the Flagstaff Hill Maritime Museum that also displays ship fittings and equipment, and personal effects. Most of the artefacts were salvaged from the wreck by Peter Ronald, former director of Flagstaff Hill.This object is significant as an example of an item in common use in the mid-19th century that is still in use today. The Schomberg has historical significance as one of the first luxurious ships built to bring emigrants to Australia to cash in on the gold rush era. And is included on the Victorian Heritage Register (VHR S612). The collection of Schomberg artefacts held at Flagstaff Hill Museum is primarily significant because of the relationship between these recovered items having a high potential to interpret the story of the Schomberg and its foundering during a storm. The shipwreck is of additional historical significance for representing aspects of Victoria’s shipping history and for its association with the first passenger ship, which was designed not only to be the fastest and most luxurious of its day but foundered on its maiden voyage to Australia.Cruet and lid; electroplated silver metal over metal, possibly nickle. The cruet has a wide bowl large handle .The round domed lid has a pattern around the border. The cruet and lid are part of a Communion set that was recovered from the wreck of the Schomberg.warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, schomberg, shipwrecked-artefact, clipper ship, black ball line, 1855 shipwreck, aberdeen clipper ship, captain forbes, peterborough shipwreck, ss queen, schomberg jug or cruet, jug or cruet, schomberg communion set, jug, cruet and lid, cruet, communion set, religious service, communion service, ceremonial service, mass

TROVE : Age (Melbourne, Vic. : 1854 - 1954), Saturday 11 October 1862, page 8 ‘…..AYER'S SARSAPARILLA FOR PURIFYING THE BLOOD; A compound remedy, designed to be the most effectual Alterative that can be made. It is a concentrated extract of Para Sarsaparilla, so combined with other substances of still greater alternative power as to afford an effective antidote for the diseases Sarsaparilla is reputed to cure. It is believed that such a remedy is wanted by those who suffer from Strumous complaints, and that one which will accomplish their cure must prove of immense service to this large class of our afflicted fellow-citizens. How completely this compound will do it has been proven by experiment on many of the worst cases to be found of the following complaints : — Scrofula and Scrofulous complaints, Eruptions and Eruptive Diseases, Ulcers, Pimples, Blotches, Tumora, Salt Rheum, Scald Head, Syphillis and Syphillitic Affections, Mercurial Disease, Dropsy, Neuralgia or Tic Doloreux, Debility, Dyspepsia and Indigestion, Erysipelas, Rose, or St. Anthony's Fire, and, indeed, the whole class of complaints arising from impurity of the blood. This compound will be found a great promoter of health, when taken in the Spring, to expel the foul humors which fester in the blood at that season of the year. By the timely expulsion of them many rankling disorders are nipped in the bud. Multitudes can, by the aid of this remedy, spare themselves from the endurance of foul eruptions and ulcerous sores, through which the system will strive to rid itself of corruptions, if not assisted to do this through the natural channels of the body by an alternative medicine. Cleanse out the vitiated blood whenever you find its impurities bursting through the skin in pimples, eruptions, or sores ; cleanse it when you find it is obstructed and sluggish in the veins ; cleanse it whenever it is foul, and your feelings will tell you when. Even where no particular disorder is felt, people enjoy batter health, and live longer, for cleansing the blood. Keep the blood healthy, and all is well; but with this pabulum of life disordered, there can be no lasting health. Sooner or later something must go wrong, and the great machinery of life is dis ordered or overthrown. Sarsaparilla has, and deserves much, the reputation of accomplishing these ends. But the world has been egregiously deceived by preparations of it, partly because the drug alone has not all the virtue that is claimed for it, but more because many preparations, pretending to be concentrated extracts of it, contain but little of the virtue of Sarsaparilla, or anything else. _ During late years, the public have been misled by large bottles, pretending to give a quart of Extract of Sarsaparilla for one dollar. Most of these have been frauds upon the sick, for they not only contain little, if any, Sarsaparilla, but often no curative properties whatever. bitter and painful disappointment has followed the use of the various extracts of Sarsaparilla which flood the market, until the name itself is justly despised, and has become synonymous with imposition and cheat. Still, we call this compound Sarsaparilla, and intend to supply such a remedy as shall rescue the name from the load of obloquy which rests upon it. And we think we have ground for believing it has virtues which are irresistible by the ordinary run of the diseases it is intended to cure. In order to secure their complete eradication from the system, the remedy should be judiciously taken according to directions on the bottle. Prepared by DR. J. C; AYER and CO., Lowell, Mass. HENRI J. HART, Sole Wholesale Agent, 21 Queen street south. Sub-agents required for all the interior towns.’ TROVE : Herald (Melbourne, Vic. : 1861 - 1954), Monday 12 November 1934, page 4 DOCTORS SHOW QUICK WAY TO END STOMACH TROUBLE Miss Ethel Phillips, Like Numbers of Victorian People, Surprised to Find How Quickly Freedom from Indigestion Improves Health, Increases Vigor and Makes One's Complexion Healthier and More Radiant. More and more Victorian people are finding that the way one looks and feels depends largely on one's digestion. And .they have learned that Ayer's Sarsaparilla — by ending indigestion — gives one increased strength, steadier nerves, clearer skin, and the improved appearance that can come only from improved health. (Photo) : HOSPITAL NURSE ENDS GASTRIC INDIGESTION BY TEMPTING TASTE OF SARSPARILLA AT MEALTIME Tall clear aqua tinted glass bottle, rectangular in section, with rectangular panels impressed on four sides with embossed text in the four panels. A shallow dome impression on the base containing embossed text.Side 1 : 'AYER'S'. Side 2 : 'COMPOUND EXT.' Side 3 : 'LOWELL MASS. U.S.A.'. Side 4 : 'SARSAPARILLA'. Base 'C57'.ayer's, sarsaparilla, compound extraction

60lbs rail that was used throughout the Victorian rail network. In 1887 Gibbs, Bright and Co. had a contract with Victorian Railways for railway and canal construction and supply of Krupp Rails. Gibbs, Bright and Co were merchant bankers and shipping agents and merchants who where also Directors of the GWR ( Great Western Railway ) and the Ship The "Great Britain" in England Gibbs, Bright and Company had principally been involved in shipping and trading, mainly in the West Indies, but following the discovery of gold in Victoria they established an office in Melbourne and soon became one of the leading shipping agents and merchants in the Colony. They expanded into passenger shipping and soon established offices in Brisbane, Sydney, Newcastle, Adelaide and Perth as well as launching passenger services between England, Mauritius and New Zealand. Gibbs, Bright also held a number of financial agencies from British mortgage, finance and investment companies as well as representing several British insurance companies in Australia. In addition they conducted a growing import business as well as an export business that included livestock, dairy produce, wool and flour. Also the company played a substantial part in the development of Australia's mineral resources, starting with lead in 1895, and later venturing into tin, gold, copper, cement and super phosphates. In Australia, after WWI, many of the larger companies were managing their own import and export so Gibbs, Bright and Company tended to focus its Agency business on smaller companies while expanding their interest into other markets such as timber, wire netting, zinc, stevedoring, road transport, marine salvage, gold mining as well as mechanical, structural, electrical and marine engineering. The Company's shipping interests continued to grow as well and still formed a major part of its business. In 1948 the parent company in England took the major step from tradition when they changed the business from a partnership into a private limited company. The name was the same, Antony Gibbs and Sons Limited, and in practice the effect of the change was very little. Some of the firm's branches and departments had already become limited companies and the formation of a parent company simplified the structure. The Australian operation was in time changed to Gibbs Bright & Co Pty Ltd in 1963. In 1848 Alfred Krupp becomes the sole proprietor of the company which from 1850 experiences its first major growth surge. In 1849 his equally talented brother Hermann (1814 - 1879) takes over the hardware factory Metallwarenfabrik in Berndorf near Vienna, which Krupp had established together with Alexander Schöller six years earlier. The factory manufactures cutlery in a rolling process developed by the brothers. Krupp's main products are machinery and machine components made of high-quality cast steel, especially equipment for the railroads, most notably the seamless wheel tire, and from 1859 to an increased extent artillery. To secure raw materials and feedstock for his production, Krupp acquires ore deposits, coal mines and iron works. On Alfred Krupp's death in 1887 the company employs 20,200 people. His great business success is based on the quality of the products, systematic measures to secure sales, the use of new cost-effective steel-making techniques, good organization within the company, and the cultivation of a loyal and highly qualified workforce among other things through an extensive company welfare system. From 1878 August Thyssen starts to get involved in processing the products manufactured by Thyssen & Co., including the fabrication of pipes for gas lines. In 1882 he starts rolling sheet at Styrum, for which two years later he sets up a galvanizing shop. The foundation stone for Maschinenfabrik Thyssen & Co. is laid in 1883 with the purchase of a neighboring mechanical engineering company. In 1891 August Thyssen takes the first step toward creating a vertical company at the Gewerkschaft Deutscher Kaiser coal mine in [Duisburg-]Hamborn, which he expands to an integrated iron and steelmaking plant on the River Rhine. Just before the First World War he starts to expand his group internationally (Netherlands, UK, France, Russia, Mediterranean region, Argentina). info from The company thyssenkrupp - History https://www.thyssenkrupp.com/en/company/history/the-founding-families/alfred-krupp.htmlHistoric - Victorian Railways - Track Rail - made by Krupp in 1888Section of VR Krupp 1888 Rail mounted on a piece of varnished wood. Rail made of ironpuffing billy, krupp, rail, victorian railways

Gold was discovered on One Tree Hill in 1854. The site has been worked intermittently until fairly recent times. Published: Nillumbik Now and Then /​ Marguerite Marshall 2008; photographs Alan King with Marguerite Marshall.; p53 Though still a working mine, One Tree Hill Mine at Smiths Gully, now stands in a tranquil reserve surrounded by bush and native animals - in contrast to its heyday. In the mid 19th century, when the mine was part of the Caledonia Goldfields, hundreds of men in search of their fortune worked the alluvial gold in the Yarra River, its tributaries and the reefs that made up the goldfields. Miner Stan Bone, assisted by Wilfred Haywood, is the last of the independent gold miners in the area and still uses the quartz crushing battery as miners did when gold was first discovered in the area in 1851.1 Stan, who is the last of six generations of miners in his family, was aged 17 when he began mining on his father Alex’ mine, The Golden Crown in Yarrambat. These days, after blasting the gold-bearing rock in Mystery Reef, one of the four reefs at One Tree Hill, Stan transports it around five kilometres by tip truck to the Black Cameron Mine for crushing. There he uses water from the waterlogged mine, (which still contains gold), as the Happy Valley Creek at One Tree Hill is usually dry.2 The One Tree Hill Mine has been worked for close to a century since it opened around the late 1850s.3 The Swedish Reef was its most productive reef and one of the largest in the area. Around 1859, extractions included 204 ounces (5.8kg) of gold, won from 57 pounds (26kg) of stone.4 Then during World War Two, Stan’s uncle, Bill Wallace, and Alex Bone, closed the mine. In 1973, Stan, with his Uncle Bill, reopened the Black Cameron Mine and worked there until 1988. Stan resumed mining One Tree Hill in 1998. As late as the 1920s gold was picked up by chance! When crossing a gully on his way to vote at the St Andrews Primary School, Bill Joyce picked up some quartz containing gold. This site was to become the Black Cameron Mine. The Caledonia Diggings, named after Scotland’s ancient name by local Scots, began around Market Square (now Smiths Gully) and included Queenstown (St Andrews), Kingstown (Panton Hill) and Diamond Creek. There were also poorer bearing fields in Kangaroo Ground and Swipers Gully (now Research). * None of these compared in riches to the Ballarat and Bendigo fields5, but the Caledonia Diggings continued intermittently for close to 100 years. Gold was discovered in Victoria following a bid to stem the disappearance of much needed workmen to the New South Wales diggings. Several businessmen offered a reward of £200, for the discovery of gold within 200 miles (322 km) of Melbourne. Late in June 1851, gold was first discovered at Andersons Creek, Warrandyte. Then in 1854, George Boston and two other men discovered gold at Smiths Gully. Gold transformed the quiet districts, with a constant flow of families and vehicles on the dirt tracks en route to the Caledonia Diggings. Three thousand people worked the gullies in Market Square, including about 1000 Chinese miners. The square established its own police, mining warden, gold battery, school, shops and cemetery and grog flowed. Market Square flourished until the middle 1860s. Bullocks transported quartz from the Caledonia Goldfields to the crushing machinery at the Queenstown/St Andrews Battery, near Smiths Gully Cemetery. It was destroyed by bushfire in 1962. By the late 1850s, most early alluvial fields were in decline, but minor rushes continued until around 1900 and some until the early 1940s. Some miners did well, although most earned little from their hard labour in the harsh and primitive conditions.6 But according to historian, Mick Woiwod, the gold fields helped to democratise society, as individuals from all walks of life were forced to share experiences, and the ability to succeed, depended less on inherited wealth or social rank.This collection of almost 130 photos about places and people within the Shire of Nillumbik, an urban and rural municipality in Melbourne's north, contributes to an understanding of the history of the Shire. Published in 2008 immediately prior to the Black Saturday bushfires of February 7, 2009, it documents sites that were impacted, and in some cases destroyed by the fires. It includes photographs taken especially for the publication, creating a unique time capsule representing the Shire in the early 21st century. It remains the most recent comprehenesive publication devoted to the Shire's history connecting local residents to the past. nillumbik now and then (marshall-king) collection, gold mining, one tree hill mine, smiths gully

In 1941, the scientific instrument manufacturing firms of  Henry Hughes & Son Ltd, London, England, and  Kelvin Bottomley & Baird Ltd, Glasgow, Scotland, came together to form Kelvin & Hughes Ltd. Kelvin Company History: The origins of the company lie in the highly successful and strictly informal relationship between William Thomson (1824-1907), Professor of Natural Philosophy at Glasgow University from 1846-1899 and James White, a Glasgow optical maker. James White (1824-1884) founded the firm of James White, an optical instrument maker in Glasgow in 1850 and was involved in supplying and mending apparatus for Thomson university laboratory and working with him on experimental constructions. White was declared bankrupt in August 1861 and released several months later. In 1870, White was largely responsible for equipping William Thomson laboratory in the new University premises at Gilmore hill. From 1876, he was producing accurate compasses for metal ships to Thomson design during this period and this became an important part of his business in the last years of his life. He was also involved in the production of sophisticated-sounding machinery that Thomson had designed to address problems encountered laying cables at sea, helping to make possible the first transatlantic cable connection. At the same time, he continued to make a whole range of more conventional instruments such as telescopes, microscopes and surveying equipment. White's association with Thomson continued until he died. After his death, his business continued under the same name, being administered by Matthew Edwards (until 1891 when he left to set up his own company. Thomson who became Sir William Thomson and then Baron Kelvin of Largs in 1892, continued to maintain his interest in the business after James White's death. In 1884 raising most of the capital needed to construct and equip new workshops in Cambridge Street, Glasgow. At these premises, the company continued to make the compass Thomson had designed during the 1870s and to supply it in some quantity, especially to the Admiralty. At the same time, the firm became increasingly involved in the design, production and sale of electrical apparatus. In 1899, Lord Kelvin resigned from his University chair and became, in 1900, a director in the newly formed limited liability company Kelvin & James White Ltd which had acquired the business of James White. At the same time Kelvin's nephew, James Thomson Bottomley (1845-1926), joined the firm. In 1904, a London branch office was opened which by 1915 had become known as Kelvin, White & Hutton Ltd. Kelvin & James White Ltd underwent a further change of name in 1913, becoming Kelvin Bottomley & Baird Ltd. Hughes Company History: Henry Hughes & Sons were founded in 1838 in London as a maker of chronographic and scientific instruments. The firm was incorporated as “Henry Hughes & Sons Ltd” in 1903. In 1923, the company produced its first recording echo sounder and in 1935 a controlling interest in the company was acquired by S Smith & Son Ltd resulting in the development and production of marine and aircraft instruments. Following the London office's destruction in the Blitz of 1941, a collaboration was entered into with Kelvin, Bottomley & Baird Ltd resulting in the establishing “Marine Instruments Ltd”. Following the formal amalgamation of Kelvin, Bottomley & Baird Ltd and Henry Hughes & Sons Ltd in 1947 to form Kelvin & Hughes Ltd. Marine Instruments Ltd then acted as regional agents in the UK for Kelvin & Hughes Ltd who were essentially now a part of Smith's Industries Ltd founded in 1944 and the successors of S. Smith & Son Ltd. Kelvin & Hughes Ltd went on to develop various marine radar and echo sounders supplying the Ministry of Transport, and later the Ministry of Defence. The firm was liquidated in 1966 but the name was continued as Kelvin Hughes, a division of the Smiths Group. In 2002, Kelvin Hughes continues to produce and develop marine instruments for commercial and military. G. Falconer Company History: G Falconer (Hong Kong Ltd) appear to have had a retail presence in Hong Kong since 1885, according to the company website, and currently have a shop in the Peninsula Hotel. G Falconer was the Hong Kong selling agent for several British companies. Ross Ltd of 111 New Bond St London was one and the other was Kelvins Nautical Instruments. Falconers were primarily watchmakers, jewellers and diamond merchants.They were also agents for Admiralty Charts, Ross binoculars and telescopes, and sold English Silverware and High Class English Jewellery. In 1928 the company was operating from the Union Building opposite the Hong Kong general post office. It is unclear if the item is an original Sextant made by Kelvin prior to his amalgamation with Henry Hughes & Sons in 1941 as Kelvin appears to have only made compasses up to this date. If the Sextant can be established that it was made by Kelvin then it is very significant and a rare item made for and distributed through their Hong Kong selling agents G Falconer Ltd. There are many Sextants advertised for sale stating "Kelvin & Hughes 1917 model sextant". These can be regarded as replicas as the company was not formed until 1941 and production of marine instruments was not fully under way until after the war in 1947. Further investigation needs to be undertaken to accurately determine the provenance of this item. As the writer currently has the impression that the subject object was possibly made by Kelvin and Hughes in the mid to late 20th century or is a replica made by an unknown maker in the late 1970s. Purchased as an exhibition of marine navigational instruments for the Flagstaff Hill museum. The Sextant is a brass apparatus with filters and telescope lens, and comes with a wooden felt lined storage box. It is a doubly reflecting navigation instrument that measures the angular distance between two visible objects. The primary use of a sextant is to measure the angle between an astronomical object and the horizon for the purposes of celestial navigation.G Falconer and Co. Hong Kong (retailers of nautical equipmentflagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, sextant, kelvin & hughes ltd, hong kong, navigational instrument, g falconer, mariner's quadrants

Yields information about Ballarat, it businesses, identifies and its locations or environs through photos and advertisements and articles.The body of the "Christmas Number of the Ballarat Courier, Special Edition - December 1922" = coves missing. See attached listing with worksheet for summary of contents. Contains many advertisement for local business houses, photos and fiction and articles , pages 3 - 94 still existing, stapled. Notes on contents of Christmas Number of The Ballarat Courier Special edition, December 19, 1922. Photos Ballarat Association Cricket Team, winners Country championship - 1922 and photo of dinner at Sth Melb. Town Hall by VCA. - p83 Ballarat Golf club, Arch of Victoria and Club House - p63, 65 Ballarat Imperial Football club - league premier- 1922 - p19 Ballarat Miners Turf Club - showing stands and office bearers - p43 Ballarat North Golf Club - p67 Ballarat Town hall - p87 Ballarat Turf Club Office bearers and race finish - p45 Ballarat Yacht club - opening day and yacht race - p89 Black Hill Progress Association, - members and scenes - p33 Eureka Monument - p79 Finish of a race at Miners RC - p45 Head of the Lake and St. Patrick's the winning crew - p47 1.ake Wendouree - boating on (Gardens side - p] 1 Lake Wendouree, rowing and club houses - p28 Lal Lal waterfalls - p61 Lydiard St. View - Railway Station, Cemetery gates, Mining Exchange, Post Office and Banks - p71 National Federation Conference - 1922 - p39 South city Football club, Ballarat Assoc. Premiers 1922 - p25 Sturt and Lydiard St - top photo Town Hall and T&G building, with ESCo tram (pencil note "Tram No- 3 - Peckham Truck" written in - p75. Bottom photo, looking south from Town Hall. The Western Oval during a football match - p23 Victorian Farmers Union Conference, Ballarat 1922 - p37 Victorian Railway photos of various scenes around Victoria: Pages 3, 5, 7, 55, 59 Views of Victoria Park - p91 VR Ballarat Railway Workshops - p9 Advertisements on even numbered pages, featuring in particular: Ballarat Motor Garage - with photos - p88 C.A.V. Willard - storage battery service Stn - p76 with photo. CA Mitaxa - Builder - includes photos of new homes - p38 Coles & Pullham - stock sales - with photos - p86 ESCo - p70 Geo E. Dibble, machinery merchant - includes photos - p26 Geo. Waller - asphalt and carrier - photos of work and buildings Hanrahan's of Ballarat - Garage and stables - p30 J.L.Ridings - dentists, - photos of surgery p14 Longhurst's Bakeries - Mair and Yuille St. Includes Photos. - P84 Preston Motors, Melbourne - The Maxwell Sep Morse - Motor and Carriage builders - photo - p78 St. Patrick's College - photos of students and buildings - p46 State Savings Bank of Vic. - p20 T-J. Brown house remover and general carrier, photo of traction engines - p90 T.J.Haymes - Wallpaper etc. - p33 The Ballarat Co-Op Distribution Society - includes photos - p44 The Hupmobile - McLean Richards Motors - p22 Wallace Butter Factor - p82 Articles Black Hill Progress Association - p35 Damaged pages - cut outs clippings etc. Page 17/18 - top half bottom 1/3 of page 21/22 Pages: 9, 70, 71, 75, 87 and 90 imaged. Record reviewed and images of some of the pages added 10-9-2013p74. Note re tram 33.trams, tramways, ballarat, commerce, ballarat business, sports, science, esco

The badge recovered from the Schomberg wreck is believed to depict one of the first steam engines. The engine's design by Charles Tayleur & Co. was to be produced for the Great Western Railway in England. The first nineteen of these locomotives were ordered by Isambard Kingdom Brunel for the Great Western Railway including six 2-2-2 Charles Tayleur locomotives. They were built by Charles Tayleur and Company, which later the Vulcan Foundry. The locomotives were unsuccessful and were rapidly supplemented by the Star Class locomotives ordered by Daniel Gooch once he had been appointed as the Locomotive Engineer. As built, they comprised two groups of three, the first group, was delivered in 1837. This locomotive was the first to run on the Great Western Railway when it was tested on 28 December 1837 from its shed at West Drayton. It was withdrawn in 1843 but was rebuilt as a 2-2-2T tank locomotive and returned to service in 1846, running in this form until 1868. It survived for two more years at Reading as a stationary boiler. It is named after the workshops where it was built, which themselves were named after the Roman god of fire. (Although a supposition, it is possible that the owner was a passenger on the ill-fated Schomberg and that they worked either for the Great Western Railway or the Vulcan Foundry that made the engine in the 1830s.) Wreck of the Schomberg: Schomberg was a large three-masted full-ship rigged wooden ship built in 1855 by Alexander Hall and Co in Aberdeen, Scotland for James Baines' famous Black Ball Line at £43,103. The vessel was 288 feet (88 meters) in length, with a beam of 45 feet (14 meters), a depth of 29.5 feet (8.99 meters) of 2,284 tons. The mainmast was 210 feet (64 meters) high and she carried 3.3 acres of sail. The vessel was constructed with three skins. One planked fore and aft, and two diagonally planked, fastened together with screw-threaded trunnels (wooden rails). The Schomberg is one of only three clipper wrecks in Victorian waters that operated the England to Australia run. While the other two, Empress of the Sea and Lightning, were built by the famous American shipbuilder, Donald Mac Kay. Schomberg was an attempt to build a faster ship than Mac Kay and a vessel fast enough to break the sailing record to Australia. The Schomberg sailed on her maiden voyage from Liverpool on 6 October 1855, under the command of Captain James Forbes, on its maiden voyage to Australia with a general cargo, jewellery, spirits, machinery, and 2,000 tons of 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, plus 90,000 gallons of water for washing and drinking. She also carried 17,000 letters and 31,800 newspapers. There were approximately 473 passengers and a crew of 105. It was hoped that Schomberg would make Melbourne in sixty days, setting a record for the voyage, but light winds at the equator dashed those expectations. The ship sighted Moonlight Head in southwest Victoria on Christmas Day but through a deadly combination of wind, currents, and unmarked sand spits, the vessel gently ran aground on 26 December 1855 on a spit that juts into Newfield Bay, just east of Curdies Inlet, and the present town of Peterborough. Fortunately, the SS Queen was nearby and managed to save all passengers and crew. The steamers Keera and Maitland were dispatched to salvage the passenger's baggage and the more valuable cargo. Other salvage attempts were made, but deteriorating weather made the work impossible, and within two weeks the Schomberg's hull was broken up and the vessel abandoned. The wrecking of the Schomberg caused quite a public stir, particularly in light of the fact the vessel was supposed to be, the most perfect clipper ship ever built. Captain Forbes was charged in the Supreme Court under suspicion that he was playing cards with two female passengers below decks when his ship ran aground. Despite a protest meeting, two inquiries, and the court proceedings, he was found not guilty and cleared of all charges. In 1975, divers from Flagstaff Hill, including Peter Ronald, found an ornate communion set at the wreck. The set comprised a jug, two chalices, a plate, and a lid. The lid did not fit any of the other objects and in 1978 a piece of the lid broke off, revealing a glint of gold. As museum staff carefully examined the lid and removed marine growth, they found a diamond ring, which is currently on display in the Great Circle Gallery at the Flagstaff Hill Maritime Museum that also displays ship fittings and equipment, and personal effects. Most of the artefacts were salvaged from the wreck by Peter Ronald, former director of Flagstaff Hill.The Schomberg has historical significance as one of the first luxurious ships built to bring emigrants to Australia to cash in on the gold rush era. And is included on the Victorian Heritage Register (VHR S612). The collection of Schomberg artefacts held at Flagstaff Hill Museum is primarily significant because of the relationship between these recovered items having a high potential to interpret the story of the Schomberg and its foundering during a storm. The shipwreck is of additional historical significance for representing aspects of Victoria’s shipping history and for its association with the first passenger ship, which was designed not only to be the fastest and most luxurious of its day but foundered on its maiden voyage to Australia.Gold coloured brass badge depicting an 1840's steam engine or locomotive with the figure of a fireman standing on the back. Smoke is coming from the smokestack. The reverse has three holes, possible where a mounting pin or fastener was attached. The badge was recovered from the wreck of the Schomberg.warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, schomberg, shipwrecked-artefact, clipper ship, black ball line, 1855 shipwreck, captain forbes, ss queen, badge, charles tayleur, great western railway, vulcan foundry, isambard kingdom brunel, locomoive, brooch

Before the introduction of electricity, lighthouses had a clockwork mechanism that caused the lens to rotate with a light source inside that was either powered by Kerosene or Colza oil. The mechanism consisted of a large weight attached by a cable through the centre of the lighthouse to the top where the cable wrapped around a barrel, drum or wheels that controlled the speed of the lights rotation by a clockwork mechanism. The keeper would crank the clockwork mechanism, which would lift the weight ready for the next cycle similar to an old grandfather clock mechanism. Once the weight lifted to its apex at the bottom of the first landing, the keeper would let it fall, which would pull on the cable, which would, in turn, operate a series of gears activating the rotation of the Fresnel optical lens, which would then rotate to create the lighthouse’s unique light speed of rotation characteristic. Creating a specific characteristic required a way to regulate the speed of the rotation, and was important as sailors could identify a particular light by its speed and time between flashes. The weight had to fall at a certain rate to create the proper rotation speed of the lens and a regulator within the mechanism accomplished this. History: From 1851, Chance Brothers became a major lighthouse engineering company, producing optical components, machinery, and other equipment for lighthouses around the world. James Timmins Chance pioneered placing lighthouse lamps inside a cage surrounded by Fresnel lenses to increase the available light output these cages, are known as optics and they revolutionised lighthouse design. Another important innovation from Chance Brothers was the introduction of rotating optics, allowing adjacent lighthouses to be distinguished from each other by the number of times per revolution the light flashes. The noted English physicist and engineer, John Hopkins invented this system while employed at Chance Brothers. Chance Brothers and Company was a glass works and originally based in Spon Lane, Smethwick, West Midlands England. The company became a leading glass manufacturer and a pioneer of British glass making technology. The Chance family originated in Bromsgrove as farmers and craftsmen before setting up a business in Smethwick near Birmingham in 1824. They took advantage of the skilled workers, canals and many other industrial advances taking place in the West Midlands at the time. Robert Lucas Chance (1782–1865), known as 'Lucas', bought the British Crown Glass Company's works in Spon Lane in 1824. The company specialised in making crown window glass, the company ran into difficulty and its survival was guaranteed in 1832 by investment from Chance's brother, William (1788 – 1856). William owned an iron factoring business in Great Charles Street, Birmingham. After a previous partnership that Lucas had dissolved in 1836, Lucas and William Chance became partners in the business which was renamed, Chance Brothers and Company. Chance Brothers invented many innovative processes and became known as the greatest glass manufacturer in Britain. In 1848 under the supervision of Georges Bontemps, a French glass maker from Choosy-le-Roi, a new plant was set up to manufacture crown and flint glass for lighthouse optics, telescopes and cameras. Bontemps agreed to share his processes that up to then had been secret with the Chance Brothers and stayed in England to collaborate with them for six years. In 1900 a baronetcy was created for James Timmins Chance (1814–1902), a grandson of William Chance, who had started the family business in 1771 with his brother Robert. Roberts grandson, James became head of Chance Brothers until his retirement in 1889 when the company became a public company and its name changed to Chance Brothers & Co. Ltd. Additional information: Lighthouses are equipped with unique light characteristic or flashing pattern that sailors can use to identify specific lighthouses during the night. Lighthouses can achieve distinctive light characteristics in a few different ways. A lighthouse can flash, which is when brief periods of light interrupt longer moments of darkness. The light can occult, which is when brief periods of darkness interrupt longer moments of light. The light can be fixed, which is when the light never goes dark. A lighthouse can use a combination of flashing, oscillating, or being fixed in a variety of combinations and intervals to create individual light characteristics. It is a common misconception that a lighthouse's light source changes the intensity to create a light characteristic. The light source remains constant and the rotating Fresnel lens creates the various changes in appearance. Some Fresnel lenses have "bulls-eye" panels create beams of light that, when rotated between the light and the observer, make the light appear to flash. Conversely, some lenses have metal panels that, when rotated between the light and the observer, make the light appear to go dark. This Dioptric clockwork apparatus used to turn a lighthouse optical lens is very significant as it is integral to a lighthouses operation, we can also look at the social aspect of lighthouses as being traditionally rich with symbolism and conceptual meanings. Lighthouses illustrate social concepts such as danger, risk, adversity, challenge and vigilance but they also offers guidance, salvation and safety. The glowing lamp reminds sailors that security and home are well within reach, they also symbolize the way forward and help in navigating our way through rough waters not just on the oceans of the world but in our personal lives be it financial, personal, business or spiritual in nature. Nothing else speaks of safety and security in the face of adversity and challenge quite the way a lighthouse does. Revolving dioptric clockwork apparatus used to turn a Fresnel optical lighthouse lens. A cylindrical cast metal pillar and cabinet painted green with 3 glass doors enclosing the top section. Inside the pillar/cabinet is a large clockwork mechanism used to turn and regulate a lighthouse light by means of weights and a chain attached to same. One door has the name "Adams Mare" in metallic dots similar to "Braille" to the inside edge of door frame.shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, flagstaff hill, maritime-museum, shipwreck-coast, warrnambool, flagstaff-hill-maritime-village, revolving dioptric mechanism, dioptric mechanism for lighthouse, lighthouse clockwork timing mechanism, acetylene lighthouse light mechanism, 19th century lighthouse mechanism, kerosene light, fresnel lenses, colza oil, chance brothers

The Sulieman Pasha is possibly named after the most important Sultan of the Ottoman Empire, Suleiman One, or Suleiman the Magnificent, when the Ottoman Empire was at its peak. Or potentially a number of Ottoman governors, statesmen and military commanders with the same name after, however the spelling is slightly different to the mine name. No Turkish connection was found relating to the formation of the company, and remains unconfirmed. The mine operated from two shafts; No. 1 near the corner of Humffray and Mair streets, and also near where the Welcome Nugget (2217 ounces) was found years earlier; and the controversial No. 2 shaft several blocks south bordering the northern side of the main highway through Ballarat. The company produced 62 666 ounces of gold, the twelfth highest quartz reef gold production for any mine on the Ballarat goldfield. Some crushing figure examples are January-June 1881: 3674 tonnes 1085 ounces; January-June 1885: 2949 tonnes 1281 ounces; July-December 1885: 4459 tonnes 1119 ounces; January-June 1887: 1869 tonnes 730 ounces; July-December 1892: 1450 tonnes 771 ounces; July-December 1896: 4365 tonnes 1372 ounces. Like many mines in the area, gold grades were low. John Watson was noted as mine manager in the 1880s, and John Williams 1890s. The company was re-organised twice increasing the number of shares from 4000 to 24 000, and increasing the capital available. The Sulieman Pasha Company was formed in 1878. David Fitzpatrick was given the honour of turning the first sod of both the No.1 and later No. 2 shafts. The first dividend was given to shareholders in July 1881. The company obtained a prospecting vote (government grant) to start, and was very proud to be the first Victorian gold mining company to pay the funds back to the government. The event was marked by a lavish banquet laid out for ministers and government officials by the company. Leases were purchased to the south in 1885 to the Llanberris Mine boundary, after poor results began accumulating from the small No. 1 shaft. To take advantage of this new land the company planned to sink a second shaft. Initially this was to take place on government land, but the uproar from nearby residents caused the company to purchase land along the Main Road (now Western Highway), and the old Yarrowee Hotel which had occupied the site since the alluvial digger days of the 1850's was demolished. The area had since those days become heavily occupied with a number of shops, houses, a post office, church and two schools in the immediate area. The thought of an underground mine next door drew considerable opposition. The company (before the days of public relations departments) wrote 'most people would have thought that progress as vital as mining would be supported by tradesmen whose business rely on the mining industry. It seems when it comes to mining they are bereft of their senses, and considering the low ebb of mining in Ballarat East, the action of our opponents are unaccountable. (Sarcastically) There are certain engineering difficulties in moving the quartz reefs to a new location, but if we could to appease our opponents we would'. The company also wanted to take over 4 acres of the St Paul's school oval for machinery, but accused the St Paul's Church of wanting extortionate amounts of money upfront, and on a yearly basis for the privilege. It stated the church could not be opposed to mining when several years earlier it had formed its own company to mine the land, only for shareholders to lose their money. In 1886, the company approached the Minister for Mines, and attended heated public meetings on the matter. The local residents, shop owners, and church submitted a 60 person petition to the local council and government authorities. They stated the shaft contravened the mining statutes, which stating no mining could take place within 150 yards of a public building or church. A speech by a resident stated 'mining always comes with glorious pictures of the great benefits which would accrue all parties concerned if their request is granted, but if property is destroyed or depreciated in value, no-one then comes forward and compensates them'. The No. 2 shaft was approved including taking over part of the school oval. In 1888, workers at the company's No. 2 shaft went on strike to try and bring their wages in line with other mines in the district (the No. 1 shaft was operated by tributers). William Madden (26) was killed from a fall of earth underground the same year, while a year later his father John Madden (70) was similarly killed in the Madame Berry Mine elsewhere in the district. In 1897 as the amount of gold being found fell away, it came to light part of the deal to purchase the Yarrowee Hotel site was a 5% royalty on gold found. Shareholders could not understand why they were paying a royalty to the former owners of the property. The mine closed in 1898 due to a lack of gold. In 1902 a boy (age unknown) called Charles Lee was killed from a fractured skull while working to dismantle the Sulieman Pasha plant. The fuss over the No. 2 shaft had a sequel. On the company winding up, the land was purchased by J.S. Trethowan who built a house next to the shaft. In 1907, the shaft caved-in creating a sinkhole immediately at the back of the house. A Mr Chamberlain heard a deep rumbling sound at 5am, and looked out the window to see his fowl house and thirteen chickens disappear down an expanding hole. He then went back to bed, and called the police later in the day. The shaft was 1050 feet deep, and the hole at the surface that developed was 20 feet by 17 feet across, and 20 feet depth. In 1930 it is reported a syndicate had been formed to clean out the old shaft, and re-open the mine. It is assumed this was the No. 1 shaft but no more was found. (https://www.mindat.org/loc-304239.html, accessed 07/08/2019) A transverse section plan of the Sulieman Pasha Mine.sulieman pasha company, plan, mining, united black hill mine, victoria united mine, victoria street, britannia united mine, last chance mine, llanberris mine, ottoman empire, john watson, john williams, david fitzpatrick