As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) implemented the conversion strategy from mainly brown coal supply to hydro - electricity. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. This dam was constructed to supply water to feed four turbines (62 mega watts) at the West Kiewa Power Station. This was at the forefront of sustainable "Green" energy. Costs associated with power supplies is still a major incentive of governments, however environmentally friendly alternatives such as wind and nuclear have also made inroads. The Kiewa valley and its surrounding alpine catchment were looked at(Victorian State Government), from the beginning of the twentieth century as a source of alternate power for an every increasing demand for electricity by growing population and heavy industrial ares within Melbourne City and State regions. Construction of dams, such as Clover Dam provided the large quantity holding areas of water required to turn the turbines at the various power stations to provide the electricity needed. The impact of these controls by moderating water run off from the alpine regions is beneficial in reducing flooding from thawing of snow on the alps. This by-product allows agriculture and grazing to be less vulnerable to seasonal flooding thereby resulting in a more stable annual production level.Reproduction (scanned) of a black and white photo of Clover Dam circa 1940. The paper used is KodakXtraLife II paperThe reverse side of photo " KodakXtraLife II paperdams, pondage, hydro electricity, power stations, clover dam, secv

As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) implemented the conversion strategy from mainly brown coal supply to hydro - electricity. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. Clover Dam and Power Station were built by the State Electricity Commission of Victoria as part of the Kiewa Hydro Electric Scheme from the late 1930's to the early 1940's. This dam was constructed to supply water to feed four turbines (62 mega watts) at the West Kiewa Power Station. This was at the forefront of sustainable "Green" energy. Costs associated with power supplies is still a major incentive of governments, however environmentally friendly alternatives such as wind and nuclear have also made inroads. The Kiewa valley and its surrounding alpine catchment were looked at(Victorian State Government), from the beginning of the twentieth century as a source of alternate power for an ever-increasing demand for electricity by growing population and heavy industrial areas within Melbourne City and State regions. Construction of dams, such as Clover Dam provided the large quantity holding areas of water required to turn the turbines at the various power stations to provide the electricity needed. The impact of these controls by moderating water run-off from the alpine regions is beneficial in reducing flooding from thawing of snow on the alps. This by-product allows agriculture and grazing to be less vulnerable to seasonal flooding thereby resulting in a more stable annual production level.Black and white photograph of Clover Dam with Kiewa River in flood. .5mm white boarder on 3 sides of photo.Handwritten on back of photograph in black pen - Kiewa in flood. Clover Dam.clover dam, secv

As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) implemented the conversion strategy from mainly brown coal supply to hydro - electricity. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. Clover Dam and Power Station were built by the State Electricity Commission of Victoria as part of the Kiewa Hydro Electric Scheme from the late 1930's to the early 1940's. This dam was constructed to supply water to feed four turbines (62 mega watts) at the West Kiewa Power Station. This was at the forefront of sustainable "Green" energy. Costs associated with power supplies is still a major incentive of governments, however environmentally friendly alternatives such as wind and nuclear have also made inroads. The Kiewa valley and its surrounding alpine catchment were looked at(Victorian State Government), from the beginning of the twentieth century as a source of alternate power for an ever-increasing demand for electricity by growing population and heavy industrial areas within Melbourne City and State regions. Construction of dams, such as Clover Dam provided the large quantity holding areas of water required to turn the turbines at the various power stations to provide the electricity needed. The impact of these controls by moderating water run-off from the alpine regions is beneficial in reducing flooding from thawing of snow on the alps. This by-product allows agriculture and grazing to be less vulnerable to seasonal flooding thereby resulting in a more stable annual production level.Black and white photograph of Clover Dam buildings and Kiewa River. Has a .4cm white border around photograph Printed on bottom left corner of photograph in white - Clover Flatclover dam, secv

As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) implemented the conversion strategy from mainly brown coal supply to hydro - electricity. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. Clover Dam and Power Station were built by the State Electricity Commission of Victoria as part of the Kiewa Hydro Electric Scheme from the late 1930's to the early 1940's. This dam was constructed to supply water to feed four turbines (62 mega watts) at the West Kiewa Power Station. This was at the forefront of sustainable "Green" energy. Costs associated with power supplies is still a major incentive of governments, however environmentally friendly alternatives such as wind and nuclear have also made inroads. The Kiewa valley and its surrounding alpine catchment were looked at(Victorian State Government), from the beginning of the twentieth century as a source of alternate power for an ever-increasing demand for electricity by growing population and heavy industrial areas within Melbourne City and State regions. Construction of dams, such as Clover Dam provided the large quantity holding areas of water required to turn the turbines at the various power stations to provide the electricity needed. The impact of these controls by moderating water run-off from the alpine regions is beneficial in reducing flooding from thawing of snow on the alps. This by-product allows agriculture and grazing to be less vulnerable to seasonal flooding thereby resulting in a more stable annual production level. Photographs also document early engineering and building techniques used in the construction of dams and power stations during the 1940’s and 1950’s. Note the lack of safety equipment and suitable work attire worn by construction workers on the sites 1. Black and white photograph of Clover Dam under construction. Has a .5cm white border around photo 2. Black and white photograph of Clover Dam under construction showing workmen at work. Has a .5cm white border around photo Written in pencil on back of both photographs - Clover Damclover dam, secv

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

Although the Kiewa Hydro-Electric Scheme was first proposed in 1911, construction did not commence until 1938. As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) initiated the conversion from primarily brown coal supply to hydro – electricity. Field investigations during the 1940’s resulted in a new proposal for a scheme that had more than double the capacity of the 1938 scheme. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. The number of personnel involved in the planning and construction of the scheme increased dramatically. During the late 1940’s, most activity centred around the construction of the West Kiewa Power Station, Rocky Valley Reservoir, McKay Creek Power Station and the Bogong Creek Aqueduct.A common thread across all the larger hydro scheme constructions was the need for workers, both qualified and unqualified who came from around the world seeking a new life for themselves and their families. New accommodation and facilities were required for the army of workers engaged in construction in often remote and wild areas. The SEC had a high demand for timber, and set up the first of a number of sawmills at Bogong Creek in 1939 and set up the first hardwood logging in the headwaters of the Kiewa River. These new ‘towns’ such as Mt Beauty and Bogong, survived, serving the needs of operational personnel and their families, and expanding with growth of new industries. Mount Beauty, and to a lesser extent Bogong, are among these places. PHYSICAL: Large A3 size spiral bound display folder containing 21 pages of photocopied black and white photographs of various aspects of the early days of the Kiewa Valley Hydro-electric scheme including equipment, various work sites and photographs of workers and their families. 1-Bridge across Tailrace Channel 1946 2-New Mess building, Mt Beauty 3-Homan’s Gap Saw Mill 4- Diamond Drilling Plant – Big Hill 5-Rocky Valley Camp-Mess Building 6-Parlimentary Party at Rocky Valley 7-No.4 Headrace Tunnel 8- Allis-Chalmers Tractor School 9- SECV Heavy Machinery lined up by road 10- No. 5 Raceline – Balasting Track with improvised truck 1-1946 – Bridge across tailrace channel Page number 9 2-New mess building, Mt Beauty 6.4.46 Page number 10 3- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 10.1.47 Time: 11.40am No K2271 Kiewa Hydro Electric Works Homan’s Gap Saw Mill – Rip Saw Page number 11 4- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 5.10.47 Time: 11am No K4111 Kiewa Hydro Electric Works Diamond Drilling Plant – Big Hill Page number 12 5- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 11.2.48 Time: 3pm No K4277 Kiewa Hydro Electric Works Rocky Valley Camp-Mess Building Page number 13 6- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 15.4.48 Time: 4.30pm No K4397 Kiewa Hydro Electric Works Parlimentary Party at Rocky Valley Page number 14 7- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 22.8.48 Time: 9am No K4668 Kiewa Hydro Electric Works General view of No.4 Headrace Tunnel Page number 15 8-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 5.9.49 Time: 10am No K5180 Kiewa Hydro Electric Works Allis-Chalmers Tractor School – HD 19, Mr I Crossthwaite at Controls Page number 16 9- No markings Page number 17 10- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 7,12.49 Time: 4pm No K5423 Kiewa Hydro Electric Works No. 5 Raceline – Balasting Track with improvised truck. Page number 18 secv; kiewa hydro electric scheme; mt beauty; bogong; construction area

Although the Kiewa Hydro-Electric Scheme was first proposed in 1911, construction did not commence until 1938. As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) initiated the conversion from primarily brown coal supply to hydro – electricity. Field investigations during the 1940’s resulted in a new proposal for a scheme that had more than double the capacity of the 1938 scheme. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. The number of personnel involved in the planning and construction of the scheme increased dramatically. During the late 1940’s, most activity centred around the construction of the West Kiewa Power Station, Rocky Valley Reservoir, McKay Creek Power Station and the Bogong Creek Aqueduct.A common thread across all the larger hydro scheme constructions was the need for workers, both qualified and unqualified who came from around the world seeking a new life for themselves and their families. New accommodation and facilities were required for the army of workers engaged in construction in often remote and wild areas. The SEC had a high demand for timber, and set up the first of a number of sawmills at Bogong Creek in 1939 and set up the first hardwood logging in the headwaters of the Kiewa River. These new ‘towns’ such as Mt Beauty and Bogong, survived, serving the needs of operational personnel and their families, and expanding with growth of new industries. Mount Beauty, and to a lesser extent Bogong, are among these places. Large A3 size spiral bound display folder containing 21 pages of photocopied black and white photographs of various aspects of the early days of the Kiewa Valley Hydro-electric scheme including equipment, various work sites and photographs of workers and their families. 1-Allis Chalmers Tractor School 2- Gardens outside Administrative Office – Mt Beauty 3- Mt Beauty house – 1950 4-Bridge over Pretty Valley River, Bogong 5-Rocky Valley Spillway Tunnel break through 6-Ni 1 Headrace Tunnel drilling face 7-No 4 Power Station Drilling 8-Clover Dam Flood Waters 9-No1 Head Race Tunnel Portal Building 10-Clover Dam 1-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 5.9.49 Time: 10amm No K5174 Kiewa Hydro Electric Works Allis Chalmers Tractor School Page number 19 2-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 22.2.50 Time: 3.30pm No K5601 Kiewa Hydro Electric Works Gardens outside Administrative Office – Mt Beauty Page number 20 3-Mt Beauty house – 1950 Page number 21 4-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 23.10.50 Time: 11.15am No K6331 Kiewa Hydro Electric Works Bogong-Bridge over Pretty Valley River Page number 22 5-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 23.6.50 Time: 2.30pm No K5844 Kiewa Hydro Electric Works ROCKY VALLEY SPILLWAY TUNNEL BREAK THROUGH Page number 23 6-20/3/52 – No. 1 Headrace Tunnel Drilling face (E.E.E. contract) Page number 24 7-6/6/52 – No 4 Power Station – Drilling Page number 25 8-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 6/6/52 Time: No K7113 Kiewa Hydro Electric Works Clover Dam Flood Waters Page number 26 9-STATE ELECTRICITY COMMISSION OF VICTORIA Date: Oct 1952 Time: No K7239 Kiewa Hydro Electric Works No. 1 HEAD RACE TUNNEL PORTAL BUILDING. Handwritten underneath – This information from Ron White-the later Principal Hydro Engineer of the SEC. Oct 1952 Location incorrect? All work on No 1 had ceased after financial crash of 1951. This photo would refer to No 4 Headrace Tunnel? Page number 27 10-STATE ELECTRICITY COMMISSION OF VICTORIA Date: Jan 1953 Time: No K7307 Kiewa Hydro Electric Works CLOVER DAM Page number 28 secv; kiewa hydro electric scheme; bogong; mt beauty; construction area

Although the Kiewa Hydro-Electric Scheme was first proposed in 1911, construction did not commence until 1938. As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) initiated the conversion from primarily brown coal supply to hydro – electricity. Field investigations during the 1940’s resulted in a new proposal for a scheme that had more than double the capacity of the 1938 scheme. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. The number of personnel involved in the planning and construction of the scheme increased dramatically. During the late 1940’s, most activity centred around the construction of the West Kiewa Power Station, Rocky Valley Reservoir, McKay Creek Power Station and the Bogong Creek Aqueduct.A common thread across all the larger hydro scheme constructions was the need for workers, both qualified and unqualified who came from around the world seeking a new life for themselves and their families. New accommodation and facilities were required for the army of workers engaged in construction in often remote and wild areas. The SEC had a high demand for timber, and set up the first of a number of sawmills at Bogong Creek in 1939 and set up the first hardwood logging in the headwaters of the Kiewa River. These new ‘towns’ such as Mt Beauty and Bogong, survived, serving the needs of operational personnel and their families, and expanding with growth of new industries. Mount Beauty, and to a lesser extent Bogong, are among these places. Large A3 size spiral bound display folder containing 21 pages of photocopied black and white photographs of various aspects of the early days of the Kiewa Valley Hydro-electric scheme including equipment, various work sites and photographs of workers and their families. 1-Mt Beauty Pondage inlet-Regulating weir 2-Langfords Gap Basalt Hill-Tunnel in quarry face.3-Rocky Valley Camp-from Engineering Office 4-Basalt Hill tunnel portal 5-No 1 Pressure Shaft Works Bench 6-No 1 Power Station 7-Overturned haulage wagons on the side of an embankment 8- Group of workers dressed in wet weather gear inside a tunnel 9-Workmen and vehicle in tunnel 10-Howman’s Gap campsite at 4,150 feet 1-1954 – Mt Beauty Pondage inlet – Regulating weir Page number 29 2-28/10/54 – Langfords Gap Basalt Hill – Tunnel in quarry face K7860 Page number 30 3-STATE ELECTRICITY COMMISSION OF VICTORIA Date: 17.8.55 Time: No K8132 Kiewa Hydro Electric Works ROCKY VALLEY CAMP – FROM ENGINEERING OFFICE Page number 31 4-28/10/54 – Basalt Hill tunnel portal K7859 Page number 32 5-No.1 Pressure Shaft Works Bench 5.7.56 Page number 33 6- No. 1 Power Station 26.4.59 Page number 34 7- No markings Page number 35 8-No markings (Wooden board on ground printed with - POLAR A.N.GELATINE DYNAMITE “75” DE 28.8.40) Page number 36 9-No markings Page number 37 10-Howman’s Gap campsite at 4,150 feet Page number 38 secv; kiewa hydro electric scheme; mt beauty; bogong; construction area

Although the Kiewa Hydro-Electric Scheme was first proposed in 1911, construction did not commence until 1938. As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) initiated the conversion from primarily brown coal supply to hydro – electricity. Field investigations during the 1940’s resulted in a new proposal for a scheme that had more than double the capacity of the 1938 scheme. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. The number of personnel involved in the planning and construction of the scheme increased dramatically. During the late 1940’s, most activity centred around the construction of the West Kiewa Power Station, Rocky Valley Reservoir, McKay Creek Power Station and the Bogong Creek Aqueduct.A common thread across all the larger hydro scheme constructions was the need for workers, both qualified and unqualified who came from around the world seeking a new life for themselves and their families. New accommodation and facilities were required for the army of workers engaged in construction in often remote and wild areas. The SEC had a high demand for timber, and set up the first of a number of sawmills at Bogong Creek in 1939 and set up the first hardwood logging in the headwaters of the Kiewa River. These new ‘towns’ such as Mt Beauty and Bogong, survived, serving the needs of operational personnel and their families, and expanding with growth of new industries. Mount Beauty, and to a lesser extent Bogong, are among these places. Large A3 size spiral bound display folder containing photocopied black and white photographs of various aspects of the early days of the Kiewa Valley Hydro-electric scheme including equipment, various work sites and photographs of workers and their families. 1-Workmen working inside one of the tunnels. 2-Workman drilling in West Kiewa Tunnel 3-Junction Dam wall construction 4&5-2B&W photographs Kiewa House residents ready to go to a ball in Mt Beauty 6-Workmen warming up in front of a fire at No 1 bench 7-Workmen being hauled in at No 4 P.S Shaft 8-No 4 Power Station – Drilling 9-Workmen eating a hot meal in the tunnel. 10-2 photographs (a)Pretty Valley camp showing workman’s huts and construction materials & (b)Worker in Langford Gap Basalt Hill Tunnel face 11-Tunnel entrance (unlabelled) with rail tracks in foreground 12- Workmen drilling at No 1 Head race tunnel-Drilling face 13- No 1 Power Station 14-Workmen at the entrance to one of the SECV tunnels under construction 1-SECV number at bottom of picture Half obscured possibly K8461 Page number 53 2-In West Kiewa Tunnel Page number 54 3- Construction of Junction Dam wall – approximately 1941 Page number 55 4&5- Residents of Kiewa House at Bogong ready to go to the ball at Mt Beauty-1946. Handwritten on a copy of the photo on opposite page Mrs Lorna Crosset filled out the names *Dad was Des Crossett – his daughter is Gael Petcopoulis Greta engaged to John broke it off. Charlie, Rosalind, Bill, Priscilla, Max Lawrence-Dad’s Boss, Mary & Max married, Mary, Kay, Gwen McPherson Mum’s boss, John McCluskey (c) At No. 5 Bench Page number 56 6- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 27.2.51 Time:2.15pm No K6373 Kiewa Hydro Electric Works No. 4 P.S. Shaft – Haulage of men in buckets (b) As above Handwritten at top of photo Appendix 4 page number 57 7- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 6.6.52 Time:… No K7122 Kiewa Hydro Electric Works No. 4 POWER STATION – DRILLING page number 58 8-No markings page number 59 9-(a)Handwritten under photograph Approx. 1948/49 (b) STATE ELECTRICITY COMMISSION OF VICTORIA Date: 28.10.54 Time:.. No K7860 Kiewa Hydro Electric Works LANGFORD GAP BASALT HILL TUNNEL FACE Page number 49 10-(a) No markings 11- STATE ELECTRICITY COMMISSION OF VICTORIA Date: 20.3.52 Time: No K6979 Kiewa Hydro Electric Works No. 1 HEAD RACE TUNNEL – DRILLING FACE (E.E.E. CONTRACT) ‘The Frenchies’ (E.E.E) as they were affectionately known Page number 50 12-31.5.56 No. 1 Power Station Aggregate Stock Piles. Page number 51 13&14-No markings Page number 52 secv; kiewa hydro electric scheme; bogong; mt beauty; construction area

Although the Kiewa Hydro-Electric Scheme was first proposed in 1911, construction did not commence until 1938. As part of the push to cut electricity costs and diversify supply, the Victorian Government (circa 1930) initiated the conversion from primarily brown coal supply to hydro – electricity. Field investigations during the 1940’s resulted in a new proposal for a scheme that had more than double the capacity of the 1938 scheme. The Kiewa Hydroelectric Scheme became the largest scheme of its kind in the State Of Victoria and the second largest scheme in Australia. The number of personnel involved in the planning and construction of the scheme increased dramatically. During the late 1940’s, most activity centered around the construction of the West Kiewa Power Station, Rocky Valley Reservoir, McKay Creek Power Station and the Bogong Creek Aqueduct.A common thread across all the larger hydro scheme constructions was the need for workers, both qualified and unqualified who came from around the world seeking a new life for themselves and their families. New accommodation and facilities were required for the army of workers engaged in construction in often remote and wild areas. The SEC had a high demand for timber, and set up the first of a number of sawmills at Bogong Creek in 1939 and set up the first hardwood logging in the headwaters of the Kiewa River. These new ‘towns’ such as Mt Beauty and Bogong, survived, serving the needs of operational personnel and their families, and expanding with growth of new industries. Mount Beauty, and to a lesser extent Bogong, are among these places. Large A3 size spiral bound display folder containing photocopied black and white photographs of various aspects of the early days of the Kiewa Valley Hydro-electric scheme including equipment, various work sites and photographs of workers and their families. 1-Breakdown in Circuit Breaker (Isolating Contacts) 2-Big Hill Bench- Site of No 5 Devlopment 3-No 1 Power Station 4-No 1 Pipeline, Anchor No 8 5-Push Dozing-RD8 Tractor 6- Tractor and driver at work 7- Workmen in unnamed tunnel 8- Front page of Journal of SECV Vol 15. Photograph of No 1 pipeline viewed from McKay Portal 9-Rocky Valley Dam Core Wall 10-Workmen working inside tunnel loading rocks into a rail truck. 1-Breakdown in (generator) Circuit Breaker (Isolating Contacts) Handwritten underneath (This is not a picture of any part of a generator. It is a circuit breaker Signed Ron White Ron was the Principal Hydro Engineer of the SEC Kiewa Scheme Page number 39 2-Big Hill Bench – Site of No. 5 Development (abandoned) Page number 40 3-No 1 Power Station Page number 41 4-No. 1 Pipeline, Anchor No. 8 Page number 42 5-Push Dozing – RD8 Tractor, 12 cubic yard Carryall and FD Cletrac Tractor Page number 43 6-No marking Page number 44 7-No marking Page number 45 8-Journal of State Electricity Commission of Victoria SEC Vol 15 No… April-May, 19… No 1 Pipeline-A view from McKay Portal G Hempenstall and D Sutton stiffening pipe section for transport during construction (….indicates missing text) Page Number 46 9-Rocky Valley Dam Core Wall Page number 47 10-No markings Page number 48 secv; kiewa hydro electric scheme; construction area; power stations; reservoirs; aqueduct; mt beauty; bogong

A saw is a tool consisting of a tough blade, wire, or chain with a hard-toothed edge. It is used to cut through material, very often wood, though sometimes metal or stone. The cut is made by placing the toothed edge against the material and moving it forcefully forth and less vigorously back or continuously forward. This force may be applied by hand, or powered by steam, water, electricity or other power sources. An abrasive saw has a powered circular blade designed to cut through metal or ceramic. In ancient Egypt, open (unframed) saws made of copper are documented as early as the Early Dynastic Period, circa 3,100–2,686 BC. Many copper saws were found in tombs dating to the 31st century BC. Models of saws have been found in many contexts throughout Egyptian history. As the saw developed, teeth were raked to cut only on the pull stroke and set with the teeth projecting only on one side, rather than in the modern fashion with an alternating set. Saws were also made of bronze and later iron. In the Iron Age, frame saws were developed holding the thin blades in tension. The earliest known sawmill is the Roman Hierapolis sawmill from the third century AD used for cutting stone.The subject item is believed to date from around the mid to late 20th century and is regarded as a modern item. The maker is unknown but the pattern or design and type of wood used indicate it is a tool of modern manufacture. Compass saw blade with wooden handle attached with wingnut.Noneflagstaff hill, warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, wood cutting, wood saw, cross cut saw, cabinet makers tools, wood working tools, tool

This guillotine is a hand operated machine specifically designed to cut through multiple sheets of paper or card. It has a very heavy and sharp single blade knife mounted between vertical guides or runners. The main users of a machine like this is in by the printing and publication binding industry. Book binding companies use a guillotine to evenly trim the pages of a book after it has been bound. The way the guillotine is used is - paper or card is stacked squarely on the flat table and pushed firmly against the back guide - the handle below the table at the front of the machine is wound around, which brings the back guide forward, pushing the paper stack forward and positioning the centre of the stack below the vertical frame - the upper wheel is wound around, which brings the clamp and firmly in position on top of the paper, to hold it very firmly - the large wheel on the side of the machine is turned around to lower the long sharp blade down onto the pages and cut them through. The sharp edge of the blade is protected somewhat from becoming blunt; a block of wood sits in the table under the stack of paper An early model of a guillotine was patented in 1837 by Thirault, who built a model with a fixed blade. Guillotines similar in principal to this one were patented by Guillaume Massiquot in 1844 and 1852. Over the years many improvements have been made and operation has moved from man power to electricity. Oscar Friedheim Ltd. was the importer and wholesaler of a large range of machinery and equipment for the printing and bookbinding industry. He sold most of his equipment under his own name. On this guillotine or paper cutter he refers to the origin of the guillotine’s manufacture only as “German Manufacrure”. A reference book “Commercial Bookbinding: a description of the processes and the various machines used" by Geo. Stephen, 1910, recommends Oscar Friedheim, amongst others, for the supply of “reliable cutting machines for hand or power”. It also recommends Oscar Friedheim’s for a wide range of other printing machinery and processes. OSCAR FRIEDHEIM LIMITED, LONDON Oscar Friedheim Ltd. was established in 1884 and operated from Ludgate in London. The company was an importer and wholesale supplier in the 1880’s, offering machinery and equipment for the printing and packaging industry for the UK and Ireland. The company became incorporated in 1913. An advertisement of 1913 includes a telegraphic code plus two telephone numbers for Oscar Friedheim Ltd and invites readers to call at the Ludgate, London, showrooms to see the machines working. The company later became Friedheim International Ltd. The book titled “Friedheim, A Century of Service 1884-1984 by Roy Brewer, celebrates Oscar Friedheim’s achievements. Friedheim International currently operates from Hemel Hempstead, on the northern outskirts of London UK. It promotes itself as “… the leading supplier of finishing, converting and packaging machinery to the printing, graphic arts, and highly varied packaging industries in the UK and Ireland. The company’s policy is simple – “employ the best people, work with the best equipment manufacturers in the world, and treat our customers as partners!” The company still sells guillotines. The guillotine is significant for its ability to represent aspects of the printing trade in Warrnambool and in a typical port town circa 1850 to 1910. It represents communication methods and processes used in the time before electrically powered equipment became common in industry.Guillotine (or paper cutter), hand operated. Metal framework with vertical guides, stand and metal mechanical parts including wheels and gears. Table with back guide; handle below front of table winds to move the back guide. A wheel at top of machine winds to adjust pressure of the clamp on the work on the table below it. The cutting blade fits between vertical guides; a timber insert in the table below the blade helps minimise the loss of sharpness of the blade. A handle on the side of the machine turns a large spoked wheel, which rotates a large gear, causing the blade to move up and down. Makers details are on a small oval plaque with embossed maker’s details is screwed onto main body. Maker is O Friedheim, London, and the machine is of German manufacture, circa late 1880’s.Maker’s plaque inscribed "O. FRIEDHEIM / London / German Manufacture"flagstaff hill, warrnambool, shipwrecked coast, flagstaff hill maritime museum, maritime museum, shipwreck coast, flagstaff hill maritime village, great ocean road, printing machinery, printer’s guillotine, paper guillotine, paper cutter machine, oscar friedheim ltd london, friedheim international ltd, bookbinding industry, printing industry

In the foreword the Chairman and General Manager, W.H. Connolly, wrote: "Australia's progress since the Second World War has been remarkable - and nowhere more so than in Victoria. Although the smallest pf the mainland States, Victoria is today the most highly industrialised, the second most populous and the most rapidly developing State in the Commonwealth. Many factors have contributed to this growth, bu the one of greatest importance is the vast wealth of easily extractable brown coal in the Latrobe Valley which is the source of Victoria's electricity and a major part of its solid fuel. ... "White and green soft covered book of 34 pages with black & white and coloured illustrations. The book includes starts with an historical section, and includes information the open cut, Yallourn Power Station, Yallourn Briquette Works, the town, Morwell Open Cut, and includes a map of the Latrobe Valley Brown Coal resources.yallourn, connolly, open cut, power station, kernot, coal, briquette, lyle, monash, yallourn open cut, yallourn power station, yallourn briquette works, morwell open cut, hazelwood, brown coal, gippsland, horses, turning sod

In the high tech, fast paced society that we live in, it’s easy to take some things for granted. Case in point: the wood cutting board on which you’ll probably be preparing the evening’s dinner. Have you ever taken the time to think about the history of the cutting board? Where did it come from, and what did ancient civilizations use to cut their meats, fruits and vegetables? Wood throughout the ages Since the dawn of time, wood has been one of the most available materials used by mankind to build tools and lodgings, so it’s not really surprising to know that wood has been used in the preparation of food since the prehistoric ages. Of course, back then, cavemen probably used an unpolished slab of tree trunk to cut the kill of the day on and they probably didn’t think twice about saving it once the meal was over. Chances are they probably threw it in the fire with the rest of the wood needed to kindle it. Advances in technology Throughout the centuries, mankind evolved and started creating machines from steam, electricity and metal. When the circular saw was invented, nicer, cleaner slabs of wood were cut and used as cutting boards. Since soft wood was the most available type of wood at the time, it was the material of choice for to be used for cutting boards. Boards were made smaller since the slab of wood could now be cut to any desired size. Since they were made smaller, they were also used to eat off of and some people referred to them as trenchers. Trenchers were originally pieces of stale hard bread that were used as substitute plates. Wood trenchers quickly became the replacements of the eatable dinnerware. The butcher block: the cutting board’s larger cousin In the industrial ages, many industries rapidly developed, and the butchery industry followed this trend as well. Before the invention of the cutting board, butchers used tree rounds to carve their meat on. The rounds were often too soft and they rapidly became unsanitary. Hard maple wood butcher blocks were the preferred choice of the industry. They were made to be extremely thick and durable, so durable in fact, that a butcher could use the same block for almost his entire career. Cutting boards around the world As cutting boards began to be more and more used in kitchens around North America, the rest of the world crafted such boards from different materials. The East used thick bamboo as their material of choice. Despite its frail appearance, bamboo is quite strong and made durable cutting boards and butcher blocks. Europe used maple in the crafting of their cutting boards while Persia used flat pieces of polished wood in their kitchens. The world then saw cutting boards that were being made from other materials like plastic and they came in all shapes and sizes, but they always served the same purpose, to provide a household with a safe, clean surface on which to prepare meals for their friends and family members. https://www.woodcuttingboards.com/news/quick-history-of-the-cutting-board-47.aspxThe use of the wooden chopping board over time. Wooden Rectangular Bread board . Worn (concave in centre). Raw wood.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, chopping board, cooking

In the high tech, fast paced society that we live in, it’s easy to take some things for granted. Case in point: the wood cutting board on which you’ll probably be preparing the evening’s dinner. Have you ever taken the time to think about the history of the cutting board? Where did it come from, and what did ancient civilizations use to cut their meats, fruits and vegetables? Wood throughout the ages Since the dawn of time, wood has been one of the most available materials used by mankind to build tools and lodgings, so it’s not really surprising to know that wood has been used in the preparation of food since the prehistoric ages. Of course, back then, cavemen probably used an unpolished slab of tree trunk to cut the kill of the day on and they probably didn’t think twice about saving it once the meal was over. Chances are they probably threw it in the fire with the rest of the wood needed to kindle it. Advances in technology Throughout the centuries, mankind evolved and started creating machines from steam, electricity and metal. When the circular saw was invented, nicer, cleaner slabs of wood were cut and used as cutting boards. Since soft wood was the most available type of wood at the time, it was the material of choice for to be used for cutting boards. Boards were made smaller since the slab of wood could now be cut to any desired size. Since they were made smaller, they were also used to eat off of and some people referred to them as trenchers. Trenchers were originally pieces of stale hard bread that were used as substitute plates. Wood trenchers quickly became the replacements of the eatable dinnerware. The butcher block: the cutting board’s larger cousin In the industrial ages, many industries rapidly developed, and the butchery industry followed this trend as well. Before the invention of the cutting board, butchers used tree rounds to carve their meat on. The rounds were often too soft and they rapidly became unsanitary. Hard maple wood butcher blocks were the preferred choice of the industry. They were made to be extremely thick and durable, so durable in fact, that a butcher could use the same block for almost his entire career. Cutting boards around the world As cutting boards began to be more and more used in kitchens around North America, the rest of the world crafted such boards from different materials. The East used thick bamboo as their material of choice. Despite its frail appearance, bamboo is quite strong and made durable cutting boards and butcher blocks. Europe used maple in the crafting of their cutting boards while Persia used flat pieces of polished wood in their kitchens. The world then saw cutting boards that were being made from other materials like plastic and they came in all shapes and sizes, but they always served the same purpose, to provide a household with a safe, clean surface on which to prepare meals for their friends and family members. https://www.woodcuttingboards.com/news/quick-history-of-the-cutting-board-47.aspxThe bread board is an example of kitchen equipment used during Victorian times and similar to those used today.Bread board. Wooden, octagonal, plain sanded light wood. Has decoration around edge and indented circular line to delineate round cutting board section.None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, bread board, cutting board, pastry board, kitchen utensil, kitchen equipment, baking equipment, food preparation

A saw is a tool consisting of a tough blade, wire, or chain with a hard-toothed edge. It is used to cut through material, very often wood, though sometimes metal or stone. The cut is made by placing the toothed edge against the material and moving it forcefully forth and less vigorously back or continuously forward. This force may be applied by hand, or powered by steam, water, electricity or other power sources. An abrasive saw has a powered circular blade designed to cut through metal or ceramic. In ancient Egypt, open (unframed) saws made of copper are documented as early as the Early Dynastic Period, circa 3,100–2,686 BC. Many copper saws were found in tombs dating to the 31st century BC. Models of saws have been found in many contexts throughout Egyptian history. As the saw developed, teeth were raked to cut only on the pull stroke and set with the teeth projecting only on one side, rather than in the modern fashion with an alternating set. Saws were also made of bronze and later iron. In the Iron Age, frame saws were developed holding the thin blades in tension. The earliest known sawmill is the Roman Hierapolis sawmill from the third century AD used for cutting stone. The subject item at this time cannot be associated with an historical event, person or place, provenance is unknown, as the maker is unknown but the pattern or design and type of wood used indicate it is a tool of modern manufacture around the mid to late 20th century.Wood hand saw with wooden handle attached to saw by 4 rivets. No blade markings Noneflagstaff hill, warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, handsaw, wood saw, carpenders tools, cabinet makers tools, wood cutting

In the high tech, fast paced society that we live in, it’s easy to take some things for granted. Case in point: the wood cutting board on which you’ll probably be preparing the evening’s dinner. Have you ever taken the time to think about the history of the cutting board? Where did it come from, and what did ancient civilizations use to cut their meats, fruits and vegetables? Wood throughout the ages Since the dawn of time, wood has been one of the most available materials used by mankind to build tools and lodgings, so it’s not really surprising to know that wood has been used in the preparation of food since the prehistoric ages. Of course, back then, cavemen probably used an unpolished slab of tree trunk to cut the kill of the day on and they probably didn’t think twice about saving it once the meal was over. Chances are they probably threw it in the fire with the rest of the wood needed to kindle it. Advances in technology Throughout the centuries, mankind evolved and started creating machines from steam, electricity and metal. When the circular saw was invented, nicer, cleaner slabs of wood were cut and used as cutting boards. Since soft wood was the most available type of wood at the time, it was the material of choice for to be used for cutting boards. Boards were made smaller since the slab of wood could now be cut to any desired size. Since they were made smaller, they were also used to eat off of and some people referred to them as trenchers. Trenchers were originally pieces of stale hard bread that were used as substitute plates. Wood trenchers quickly became the replacements of the eatable dinnerware. The butcher block: the cutting board’s larger cousin In the industrial ages, many industries rapidly developed, and the butchery industry followed this trend as well. Before the invention of the cutting board, butchers used tree rounds to carve their meat on. The rounds were often too soft and they rapidly became unsanitary. Hard maple wood butcher blocks were the preferred choice of the industry. They were made to be extremely thick and durable, so durable in fact, that a butcher could use the same block for almost his entire career. Cutting boards around the world As cutting boards began to be more and more used in kitchens around North America, the rest of the world crafted such boards from different materials. The East used thick bamboo as their material of choice. Despite its frail appearance, bamboo is quite strong and made durable cutting boards and butcher blocks. Europe used maple in the crafting of their cutting boards while Persia used flat pieces of polished wood in their kitchens. The world then saw cutting boards that were being made from other materials like plastic and they came in all shapes and sizes, but they always served the same purpose, to provide a household with a safe, clean surface on which to prepare meals for their friends and family members. https://www.woodcuttingboards.com/news/quick-history-of-the-cutting-board-47.aspxThe bread board is an example of kitchen equipment used during Victorian times and similar to those used today.Bread board wooden round with carved inner circle and carving an outer rim in old English lettering "Bread"None.flagstaff hill, warrnambool, shipwrecked-coast, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, chopping board, cooking, kitchen equipment

Henry Sutton is a talented world-wide accepted inventor with inventions relating to the telephone, photography, wireless, cars, motorcycles, and bicycles as well as many more inventions. Henry was also one of four brothers that ran the Sutton's Music Store after the death of their Father Richard Sutton. Henry Sutton taught Applied Electricity at the Ballarat School of Mines in 1883 to 1886.Capstan Navy Cut Cigarette Tin of Photographs and Negatives associated with Henry Suttonphotographs, henry sutton, capstan cigarette tin, negatives

Photograph included in book "Victoria: Gold and Minerals" issued by Mines Department Victoria, 1935Photographvictoria, excavating, dredge, brown coal, yallourn

Red hard covered book. Block Prints on white pages, and sections of the Yallourn-Morwell field and the Yallourn Coal Field Includes the following chapters: * Contribution of the Minerals Industry to the Development of Australia by G.R. Fisher (including Gold, Broken Hill Field, Coal, Copper, Tin) * PLanning and Development of the Brown Coal Open Cuts of the State Electricity Commission of Victoria by E.D.J. Stewart * Geology of the Latrobe Valley Coalfield by C.S. Gloe * Developments in Equipment USed for Overburden Removal and Coal Winning in the Brown Coal Industry by H.C.G. Rodgers / J.M. Alexander * Development of Methods for Use of Punch Cards in the Recording of Drill Clogs in the Exploration for Brown Coal by H.E.C. Beernon-fictionyallourn, morwell, loy yang, brown coal, latrobe valley, aus imm, australian institute of mining and metallurgy, ausimm

A saw is a tool consisting of a tough blade, wire, or chain with a hard-toothed edge. It is used to cut through material, very often wood, though sometimes metal or stone. The cut is made by placing the toothed edge against the material and moving it forcefully forth and less vigorously back or continuously forward. This force may be applied by hand, or powered by steam, water, electricity or other power sources. An abrasive saw has a powered circular blade designed to cut through metal or ceramic. In ancient Egypt, open (unframed) saws made of copper are documented as early as the Early Dynastic Period, circa 3,100–2,686 BC. Many copper saws were found in tombs dating to the 31st century BC. Models of saws have been found in many contexts throughout Egyptian history. As the saw developed, teeth were raked to cut only on the pull stroke and set with the teeth projecting only on one side, rather than in the modern fashion with an alternating set. Saws were also made of bronze and later iron. In the Iron Age, frame saws were developed holding the thin blades in tension. The earliest known sawmill is the Roman Hierapolis sawmill from the third century AD used for cutting stone.The subject item is believed to date from around the mid to late 20th century and is regarded as a modern item. The maker is unknown but the pattern or design and type of wood used indicate it is a tool of modern manufacture. Compass saw blade with wooden with open handle blade attached with wingnut lever at side to adjust long narrow blade Noneflagstaff hill, warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, wood cutting, wood saw, cross cut saw, cabinet makers tools, wood working tools, tool

A saw is a tool consisting of a tough blade, wire, or chain with a hard-toothed edge. It is used to cut through material, very often wood, though sometimes metal or stone. The cut is made by placing the toothed edge against the material and moving it forcefully forth and less vigorously back or continuously forward. This force may be applied by hand, or powered by steam, water, electricity or other power sources. An abrasive saw has a powered circular blade designed to cut through metal or ceramic. In ancient Egypt, open (unframed) saws made of copper are documented as early as the Early Dynastic Period, circa 3,100–2,686 BC. Many copper saws were found in tombs dating to the 31st century BC. Models of saws have been found in many contexts throughout Egyptian history. As the saw developed, teeth were raked to cut only on the pull stroke and set with the teeth projecting only on one side, rather than in the modern fashion with an alternating set. Saws were also made of bronze and later iron. In the Iron Age, frame saws were developed holding the thin blades in tension. The earliest known sawmill is the Roman Hierapolis sawmill from the third century AD used for cutting stone.The subject item is believed to date from around the mid to late 20th century and is regarded as a modern item. The maker is unknown but the pattern or design and type of wood used indicate it is a tool of modern manufacture.Compass saw with wooden handle and metal blade. Small teeth. flagstaff hill, warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, wood cutting, wood saw, cross cut saw, cabinet makers tools, wood working tools, tool, compass saw

A saw is a tool consisting of a tough blade, wire, or chain with a hard-toothed edge. It is used to cut through material, very often wood, though sometimes metal or stone. The cut is made by placing the toothed edge against the material and moving it forcefully forth and less vigorously back or continuously forward. This force may be applied by hand, or powered by steam, water, electricity or other power sources. An abrasive saw has a powered circular blade designed to cut through metal or ceramic. In ancient Egypt, open (unframed) saws made of copper are documented as early as the Early Dynastic Period, circa 3,100–2,686 BC. Many copper saws were found in tombs dating to the 31st century BC. Models of saws have been found in many contexts throughout Egyptian history. As the saw developed, teeth were raked to cut only on the pull stroke and set with the teeth projecting only on one side, rather than in the modern fashion with an alternating set. Saws were also made of bronze and later iron. In the Iron Age, frame saws were developed holding the thin blades in tension. The earliest known sawmill is the Roman Hierapolis sawmill from the third century AD used for cutting stone.The subject item is believed to date from around the mid to late 20th century and is regarded as a modern item. The maker is unknown but the pattern or design and type of wood used indicate it is a tool of modern manufacture. Compass saw with wooden handle broken and metal blade. Small teeth.Noneflagstaff hill, warrnambool, flagstaff-hill, flagstaff-hill-maritime-museum, maritime-museum, shipwreck-coast, flagstaff-hill-maritime-village, wood cutting, wood saw, cross cut saw, cabinet makers tools, wood working tools, tool, compass saw

This was the switch on ceremony for the power going to Bonang. The ribbon was cut by Mr Ted Ingram at the age of 100. Ted Ingram, was one of 22 children. The Ingram family originated from the Bombala, Bonang and Delegate area, migrating throughout out the rich farming country of East Gippsland in the early 1900s.This is a pictorial record of a significant event in the history of East Gippsland.A black / white photograph of two men cutting the ribbon at an official occasion. The ribbno is strung between to models of electricity pylons. On the table to the left is a kerosene lantern.on front - "Bonang Switch on, Mr Ted Ingram, age 100 years"bonang-electricity-supply ingram-ted

Maufactured for State Electricity Commission of Victoria (SEC) fire brigade at Yallourn township serving the nearby open cut brown coal mine, briquette manufacturing plant and electricity generating station. Donated to FSMV 19??, on closure of Yallourn Fire Brigade preparatory to closure of township to allow extension of open cut mine over township site.Unique only fire engine of design ever made.Pumper fire engine State Electricity Commission of Victoria (SEC) Fire Brigade, Yallourn, Vic Front mounted pump, ?, ? lpm [ ? gpm] Seat for 4 crew open cross mounted behind cab Ladder, ? m [ ? feet] Water tank ? l [ ? gall] Hose reel ? m [ ? feet] Current vehicle registration - CH6281 SEC logo on both doors Y F B on compartment door on both sides of bodyfire engine, fire engine pumper, dodge fire engine, dodge, yallourn fire brigade, sec fire brigade, yallourn, sec

Lamp used for burning oil. This would have been used to create light prior to electricity becoming the main source.This lamp is part of the story of lighting in domestic and maritime settings. The collection holds a number of whale oil lamps which, alongside kerosene lamps, show the development of different types of lighting.Glass lamp base with metal burner and wick raiser. Has liquid in the reservoir which looks like paraffin or kerosene. The stem has a wide base with a narrow fluted chimney stem. The base is octagonal. The glass is cut and the top of the stem underneath the reservoir has raised ball-like decorations.light, domestic, oil lamp

This reproduced photograph is of Pennyweight Flat near Beechworth, a notable area of the 1850's gold rush in Victoria. Donald Fletcher, migrating to Beechworth from Scotland in 1855, had substantial claims at Pennyweight Flat and was amongst the first in the district to utilise hydraulic sluicing and water diverting methods.The flat is said to have seen a flurry of 200 miners to the area around 1857, and by 1861 when work commenced on extending Fletcher's tail race the census recorded 644 people residing there (European males, females and Chinese).The search for gold is ingrained into the history of Victoria and therefore, images like this one which portray an open cut sluicing site can reveal important information for society and technology for the date when the photograph was taken. This image is of important historical significance for its ability to convey information about sluicing and the methods used to find gold in 1910. It also shows a location where sluicing was undertaken which provides insight into the impact of sluicing on the environment at a time when it was done. This image is important for current research into the history of Beechworth and surrounding area including Victoria's North East. The Rocky Mountain Extended Gold Sluicing Company was a long running and very active mine that was one of the most successful and largest in the district. Therefore, this image has the capacity to be beneficial for research into society and the motivations of those living and working in this region during this period and therefore, has social significance. The Beechworth Burke Museum has additional images relating to gold sluicing which can be analysed and studied alongside images like this one. When the mine closed in 1921, in a liquidation sale, Zwar purchased the tunnel and clear water supply that ran under the town of Beechworth. He directed the water to his tannery and over time built a major industry in leather works that was a major employer in Beechworth. In growing his leather business, Zwar installed crude oil engines for electricity in his factory. He oversaw working with local council to introduce electricity to Beechworth via a sub-station on Albert Street. In 1927 Electric street lamps replaced gas lamps in the streets of Beechworth. Black and white rectangular reproduced photograph printed on glossy photographic paperObverse: Reverse: 84.222.5/ digital print/ rocky mountain extended gold sluicing company, gold, sluicing, gold sluicing, hydraulic sluicing, gold mine, open cut mining, mining, gold mining, north-east victoria, beechworth, burke museum