Acquired when "Classweave Industries" closed down3textile mills woollen mills, classweave industries pty ltd federal woollen mills ltd, boilers, textile mills, woollen mills

Acquired when "Classweave Industries" closed down5textile mills woollen mills, classweave industries pty ltd federal woollen mills ltd, textile mills, woollen mills

Acquired when "Classweave Industries" closed down.4 31/87textile mills woollen mills, classweave industries pty ltd federal woollen mills ltd commonwealth woollen mills, textile mills, woollen mills

Acquired when "Classweave Industries" closed down4A 32/87textile mills woollen mills, classweave industries pty ltd federal woollen mills ltd, textile mills, woollen mills

Acquired when "Classweave Industries" closed down5 C 30/87 p?honetextile mills woollen mills, classweave industries pty ltd federal woollen mills ltd, textile mills, woollen mills

Acquired when "Classweave Industries" closed down.ENGINE/ DEFS??textile mills woollen mills, classweave industries pty ltd federal woollen mills ltd, textile mills, woollen mills

Acquired when "Classweave Industries" closed down4B 33/87 p?honetextile mills woollen mills, classweave industries pty ltd federal woollen mills ltd, boilers, textile mills, woollen mills

This case was used between 1950 and 1980's. As part of the Occupation, Health and Safety requirements, equipment used to monitor the performance of electricity producing generators, regularly, hand held testers were used to check the insulation and the "earth" pin were up the the required operational levels. As the generators and their ancillary monitoring equipment was spread over a large area and cumbersome to service small hand held devices were required. These had to always be safe for the user to operate. A selected range of high quality meters were recalibrated every two years in the Meter and Calibration Laboratory at Yarraville(near Melbourne)This leather case contains a meter which is very significant to The Kiewa Hydro Electricity Scheme because it was an integral part of maintaining the electricity producing water driven generators of the power stations. The reason why this meter was so essential is that provided the safety check on equipment used to monitor each Hydro Generator that they were complying within the grid network parameters. Grid parameters are set so that if there is an electrical fault on the system, that fault can be attended to with a very small change in the output stability of each generator. It is essential that the voltage of the network remain within the set limits. Generators are at Dartmouth, Mackay, Clover, West Kiewa, Yarrawonga, Cain Curran and three Power Stations in the Thornton area.This carry case is made from leather hide and cloth covered cardboard insert. The front side has a lockable English made suitcase fitting. It has a broken carry strap (leather) travelling from top and through leather strap holders both sides and on the bottom of the case. A State Electricity Commission of Victoria identification tag riveted onto the top lid "ELECTRICAL ENGINEERING SECTION No. 1483"sec vic kiewa hydro scheme, alternate energy supplies, alpine located electricity generators, mobile measuring equipment

This book provides in chronological order the development of the Kiewa Hydro-electricity scheme from the first concept (1911) to final construction work (1961). It covers the first attempt to utilise the power of the Victorian Alps water system. It started from a private syndicate and developed to the current State Electricity Commission of Victoria. The incentive for the Hydro scheme was to make money and not as an alternative to the carbon producing coal fired power plants. These coal fired power plants were increasing in numbers to service an ever increasing demand made by population expansion, especially in cities and large rural settlements. This demand spiraled up after World War II when there was a tremendous spike in immigration numbers due to refugees and displaced persons in Europe. The ability to utilise the untapped water provided by the winter snow fields, for a higher yield in electricity, was a powerful incentive to overcome the physical hardships in this remote Alpine region. Future power requirements may initiate the re-installation of the other two power stations(Pretty Valley and Big Hill) covered in original Scheme. This publication not only covers the development of the Kiewa Valley region with respect to population (within a socio-economical framework) but also the subtle but yet strong physical changes of a relatively pristine alpine region. The demands that an ever growing regional population places on the environment is clearly documented in print and black and white photographs. The working and living conditions of those who constructed and gave life to this hydro scheme is well documented in this book. It may be viewed as spartan now but was relevantly good at that moment in time, especially for those workers fleeing a devastated European environment. The successful planning and consideration to minimising any intrusion upon the natural alpine forests and high plains can viewed as an example (compared to the Tasmanian Hydro schemes) of how future hydro schemes (an inevitable requirement) will proceed. Most rural towns (in the early 1900s) were built by unencumbered rural based citizens, with the exception of Mount Beauty and Falls Creek. These two settlements were brought into life by a State (Victorian) Authority for a specific function and program. They were a gated community, that is, only open to construction workers involved with the hydro scheme. All facilities within these communities were provided by the State Electricity Commission of Victoria. The impact on the social, financial and individual independency of the community, by the transition from the S.E.C .environment to one of local government (Shire of Bright), had in some cases a severe impact.This hard covered book has a green cover with pictures on the front and back covers. The front cover has a coloured picture of a snow covered Mount Bogong taken from the opposite mountain range. The valley between both ranges has a whisk of mist over it. At the bottom of this picture are three black and white photographs covering the construction of the Kiewa Hydro - Electricity Scheme. On the back cover is a photograph, (black and white) detailing the Bogong village and Junction dam containing lake Guy. The inside front cover is a black and white photograph which details the construction of the West Kiewa tailrace tunnel during April 1951. The inside back cover is a black and white photograph of the concrete pour at the Clover Dam circa 1952. All photographs and sketches are in black and white. The pages are approximately 160 g/m2 and those which have photographs are on gloss paper.Book spine: "The Kiewa Story Graham Napier Geoff Easdown" alongside this is a white framed circle with white spokes radiating out and underneath in white lettering SECkiewa valley, hydro scheme, victorian alpine region, electricity generators, graham napier, geoff easdown

non-fictionThis publication details the development of the Kiewa Valley region with respect to population as well as the strong physical changes brought to the relatively pristine alpine region. The impact the growing regional population places on the environment is clearly documented in print and black and white photographs.kiewa valley, hydro scheme, victorian alpine region, electricity generators, electric power production -- victoria

This protection relay apparatus (a large electrical fuse), which permits the easy monitoring and disconnection of faulty electrical apparatus connected to the large SEC Victoria Hydro Scheme's electrical power producing generators. These generators are powered by the hydro force of "stored" water at a higher altitude. The establishment of both the NSW and Victorian Hydro Schemes was achieved from the early 1900's to the 1960's. At this point in time the need for additional power sources to quench both an industrial and domestic demand for electricity was purely an economic and not and environmental (carbon reduction) factor. This hydro scheme was instigated by "the Government of the day" as a bold move and was the major force of the World War II refugee and "technical" workforce inclusion of skilled and unskilled migration into the Australian environment. Although this mass "invasion" of workers with families was thought of in some circles as intrusive, the expansion of population post war years and its integration into the Australian rural sector, produced the multi- lingual multi-cultural diversity of later years.This protection relay is very significant to the Kiewa Valley as its use was introduced during the Kiewa Hydro Scheme. Although only a small apparatus it was part of the explosion of human resources into the valley. This influx of population transformed the region from that of a basically quiet rural region to one which evolved into both an industrial and a larger residential community. This evolution in the valley created a change, not only in the "physical" landscape but also the socio-economic expansion which permitted other "tourist" based industries into the valley.This protection relay unit has a black painted metal shell with four copper enclosed "prongs" fastened to the rear of the housing(from a bake-lite plate) . Between these "prongs" are four "empty" points allowing additional "screw on" bases. The front glass enclosed meter and recorder allows for the identification and automatic disconnection of any faulty equipment connected to the main power generator. This equipment acts similarly to a modern day circuit breaker found on the electrical circuit boards of residential homes.On the top section of the front panel "ASEA" to the left "Made in Sweden" and to the right "Frabrique en Suede" below this "RIS" below this a graph and next to it two columns of numbers and a pointer for each setkiewa hydro electricity scheme, victorian state electricity commission, relays, generators

This linesman belt was used under the 1947 Electricity Regulations and before tighter Occupation and Health regulations (late 1990's early 2000's) were introduced that mechanical lifting platforms(wherever possible) replaced the belt up the pole method.The safety concern was that it required that tools needed by the linesman had to be placed in a large canvas bag and attached to the belt (extra weight) then the linesman had to climb the ladder. Ladders had to be at the correct angle and not able to "slip" from their initial footings. A full harness and a secondary fall belt is now mandatory for pole linesmen. The safety of fellow workers could be compromised if they were required to assist or recover the first linesman if needed. In 2006 an additional 269 registered lineworkers were employed. Please note that the terminology of linesman has become unisex. The linesman's belt enabled the linesman to place his feet against the pole adjust the belt (if needed) and lean back securely allowing both hands to be free to work with. This linesman belt is very significant to the Kiewa Valley due to the numerous poles and high voltage overhead power structures that needed maintenance for the extensive "mushroom" installation of electrical power polls(wood and metal). On high poles (steel) climbing pegs were welded on, however in the Alpine areas snow in winter caused an OH&S problem which were hard to overcome. The safety of a linesman when maintenance of electricity line on poles can be highlighted by the New Zealand linesman who survived an 11,000 volt shock when carrying out maintenance. For the record 11,000 volts is four times more powerful than execution by "the electric chair". The maintenance of the linesman's belt was his responsibility (keeping it clean and in "good" condition). Labour laws change this initial responsibility, from the linesman, to the employer. Climbing pegs were installed on higher poles that extended beyond the reach of ladders.This thick leather linesman belt is made from two lengths of heavy lengths of leather straps sewn together to make up 80% of the belt. The remaining 20% is "the belt tonge" which has eleven holes for three (solid steel tang) buckle connections.kiewa hydro electricity scheme, victorian state electricity commission, relays, generators, electrical pole maintenance

Hall built July 1926, funded mainly by public donation, lighting was originally by kerosene lamps, later 'gloria lights', then a generator, until electricity connected in 1964.Colour photograph of the entry to the Nowa Nowa Community Hall, shows a timber dwelling with gable roof, weather shield over main door. Nowa Nowa Victoria.halls

This tester was used between 1950 and 1980's. As part of the Occupation, Health and Safety requirements, equipment used to monitor the performance of electricity producing generators, regularly, hand held testers were used to check the insulation and the "earth" pin were up the the required operational levels. As the generators and their ancillary monitoring equipment was spread over a large area and cumbersome to service small hand held devices were required. These had to always be safe for the user to operate. A selected range of high quality meters were recalibrated every two years in the Meter and Calibration Laboratory at Yarraville(near Melbourne) This meter is very significant to The Kiewa Hydro Electricity Scheme because it was an integral part of maintaining the electricity producing water driven generators of the power stations. The reason why this meter was so essential is that provided the safety check on equipment used to monitor each Hydro Generator that they were complying within the grid network parameters. Grid parameters are set so that if there is an electrical fault on the system, that fault can be attended to with a very small change in the output stability of each generator. It is essential that the voltage of the network remain within the set limits. Generators are at Dartmouth, Mackay, Clover, West Kiewa, Yarrawonga, Cain Curran and three Power Stations in the Thornton area.This hand driven current generator produces 500 volts by winding the handle(on funnel curved side) to keep the voltage constant(one minute per test). The whole body is made from caste aluminium. One of the functions of this meter is to test the isolation resistance of any equipment being tested. This is to see if that equipment is safe to handle(no electrical shocks). The second function is to test the earth pin of any portable electrical equipment. The turn key on one side can direct which function is required(marked insulation or continuity). On the top side(enclosed in a glass fronted marked scale) is a continuity scale(top) and an insulation scale(bottom). This is covered , when not in use by "flip up" lid with manufacturer's details and name of the instrument. Opposite the winder are two screw tight knobs. One marked earth(left side) and one marked line(right side). On the top and next to the glass windowed scales in a post manufacture SEC Vic equipment equipment ID number. For carrying purposes there is chromed steel (fold together) handle.The bottom of the unit has two metal "feet" 150mm long by 114mm wideManufacturer's details on top side "MEG" underneath "INSULATION AND CONTINUITY TESTER" below this "constant 500 VOLT pressure" below this "REGISTERED MEG MEGGER TRADE MARK" below this "REG DESIGN NO. 690326" below this "UNITED KINGDOM PATENT Nos. 193746, 197178, 198182, 202062, 202398, 204649, 350715" below this "SUPPLIED BY THE GENERAL ELECTRIC Co. Ltd OF ENGLAND" below this "MAGNET HOUSE, KINGSWAY LONDON W.C.2" 'sec vic kiewa hydro scheme, alternate energy supplies, alpine feasibility studies temperature, rainfall

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

The book was published for the use of personnel of the army, navy, marine corps and coast guard. The book was used by Charles Bacon who studied at the University of Nevada in the late 1930s/early 1940s. Bacon worked at Bunker Hill Mines and Kellogg Idaho, before arriving in Australian in 1951. He worked for CN Myers, a company involved with paper converting. CN Myers was a family business (on Charles Bacon's maternal line).Blue soft covered book of 607 pages. Chapters include electrical Algebra, fundamentals of Electricity, Wiring, Magnetism, Armature Wiring, Generators, Motors, Controllers, Geometry and Trigonometry, Alternating Current, AC Circuits, Transformers, Polyphase Systems, Alternators, Induction Motors, Stator Winding, Multi-Speed Induction Motors, AC Controllers, electrical instruments, Electron Tubes, Welding Systems, Welding Systems, electrical Drawings. charles bacon, mining engineering, metallurgy, university of nevada, armed forces, world war 2

This AC generator operated for the State Electricity Commission in the Ballarat North Power Station prior to World War Two. James Oddie of Ballarat has an association with Thomas Parker of Elswell-Parker. In early 1887 Oddie arrived in England seeking information on electrical knowledge and its developments. At this time Henry Sutton was teaching Electricity and Magnetism at the Ballarat School of Mines. Oddie stayed in the United Kingdom for around three years and during that time became a close friend of Thomas Parker and his family. The two first met at the first official running of the Blackpool tram, and Oddie was invited to visit Parker at Wolverhampton. Over the years Thomas Parker kept newspaper cuttings (mainly Australian) relating to James Oddie and his work. The following article is a description of the Wolverhampton works by James Oddie, and was collected by Thomas Parker. After the dinner at Blackpool, Mr. Parker visited me, and cordially invited me to see his extensive works at Wolverhampton, an invitation I was not slow to avail myself of. This was the keynote of the best friendship I made in England. I went shortly afterwards and stayed several days, visiting the works daily, as Mr. Parker gave me the run of the whole works. There I ordered the installation of a 60 light dynamo, with a 28 cell storage battery and paraphernalia, now doing duty at the Observatory. I subsequently visited the works frequently, sometimes for a week at a time, and I regard it as the brightest spot in my English constellation. Mr. Parker started his works in 1880, with one man beside himself. He never had a single day’s instruction in electricity in his life; now he daily instructs between 300 and 400 employees, who worship him as a father. He is said to be now the most practical electrical engineer and mechanist in Europe. During one of my visits I took with me an artist, who is painting for me a portrait, 6 feet by 5 feet, of Mr. Parker, surrounded by dynamos, secondary batteries, measuring instruments etc. Electric tram cars are going to be a big thing in England. Parker’s Company Limited, is now, with three other companies, in the hands of the Electric Construction Company, with Mr. Parker as manager of the lot. The whole of the works will be taken to Wolverhampton. Before I left, a tender for £50,000 was accepted for the construction of new works.AC Generator painted read and black on a stand. This AC generator operated for the State Electricity Commission in the Ballarat North Power Station prior to World War Twogenerator, ac generator, elwell-parker ltd, state electricity commission, sec, ballarat north power station, james oddie, wolverhampton

Typed letter on Mount Morgan Gold-mining Company, Limited Letterhead relating to staffmember W. Gildard who worked in the Electrical Department at Mount Morgan. The letter is signed by Norman F. White..1) I hereby certify the Bearer Mr W. Gildard has been under my supervision this last two years and six months in Electric Light Dept Mount Morgan G.M.Co. Ltd While under me he was quick steady and industrious also possessed good mechanical ideas. He has been switch board and Dynamo attendant worked on outside circuits series are Lighting Mine Lighting under Ground Electric Bells and Telephone work. He has had experience also on our new plant turbo generators Stationary Motors and Electric Locomotives Electric Tramway Work over head wiring and ground return you will also find him most obliging and willing. Leaving of his own accord. Frank McFarlane A.G.E.E. Electric Foreman Mount Morgan G.M. Co. Ltd march 21st 1907ballarat school of mines, mount morgan gold-mining company, mount morgan, norman f. white, electricity, w. gildard, letterhead

This generator is associated with James Oddie, and possibly Henry Sutton. Early Grey generatorelectricity generator, ballarat power station, ballarat electricity supply

Used at Ballarat School of Mines in areas needing a lot of light as well as numerous globes in banks to test the generators.Osram large gas filled, standard shaped, Eddison screw 250 V 300 W light globe.bulbs, light bulbs, osram, gec osram, ballarat school of mines, globes, edison screw, lamps, electricity

The article shows a photo of the original Hall's Gap Hall and the (then) new Hall, which was built in 1956. The copy has been scanned as two separate images (because it was too large for the scanner). the second image is stored under "Additional Images". HISTORY OF HALL'S GAP HALL: No village, no matter how small, could possibly survive without a public meeting place, and Hall's Gap was no exception, even in 1899-1900. Actually it was the locals of Stony Creek village, as Hall's Gap was known for a short time, who decided to hold a meeting to find out how much interest there was in building a town hall! They soon found out that support was overwhelming, as can be seen by the fact that 14 gentlemen nominated for a position on the committee of four! Several motions were moved at that meeting, mainly with reference to the materials to be used, for instance that no "wattle and daub", but rather slabs of bark and local bush logs be used. The walls were to be constructed of slabs, 6 feet long, 9 inches wide and two inches thick. Uprights were to be 9 feet high and at least 9 inches thick. Sheets of bark, all 32 of them, had to be 8 feet by 8 feet. Tenders for the building materials were called on 9 March 1899 and, 21 days later, McKeon Brothers won the right to supply all the material for the princely sum of 4 pounds 10 shillings. The size of the hall was to be 20 feet by 10 feet. The first hall served the community well for the next thirteen years, being regularly used as a place of entertainment and religious worship. The growing community soon realised the need for a larger venue, with better facilities, so once again the townsfolk rallied to raise funds for a new hall, realising their dream around 1913. In 1921 a schoolteacher was provided by the education department but as there was no school building she was expected to use the hall. Mainly lessons were held in the kitchen as it was much warmer than the hall itself, and it was not unusual for up to twenty children to be taught, ranging in age from 5 to 14 years. It was not until 1928 that an official school was built. 1955-56 were years of great excitement. The Progress Association was in charge of deciding the format for the new hall, and there were many rowdy meetings beforehand. Some members had much more vision than others, and to some the amount of money required seemed astronomical. Two hall committee members resigned over differences of opinion but amazingly it all came together in the end, albeit at a greater cost than had been anticipated. There is only one record of a grant being made for the building,1500 pounds, and it came for the Minister of Public Works. Estimated cost of the building was around 8,000 pounds, and when finally finished it was just slightly over, but bank charges and interest took it to well over 9,000 pounds. An electric light generator was included and lighting installed. The SEC electricity was connected in 1962.A copy of a newspaper article entitled 'The Old . . . and the Present!', which includes two photographs.buildings, halls

The machinery in this photo shows a Tournapull C earth moving machine, one of many during this period Circa 1950 - 1960s when hydro electricity powered turbines were being constructed in both the Victoria and New South Wales Alps. This was Australia's answer to a non polluting supply of electricity for a fast growing city population. It was at this time that air pollution from coal powered furnaces was becoming more and more under attack by health authorities.This item is part of a visual account of the construction of dams and hydro electricity facilities during the early 1950s. It was the beginning of the environmental push not to allow the degrading of Australian Alpine regions. Air pollution of the major cities and the increase in power demands of both industries and population within them required an alternative pollution free alternative electricity supply. These for runners of Hydro electricity generators required both large supplies of machinery and human resources. This construction phase within the region brought not only tradesmen but also unskilled workers to an area which had mainly had farming and mining activities. It was the catalyst for the creation of the smaller towns/villages e.g. Bogong Village, Mount Beauty and Bright.Black and white photograph on Kodak Xtralite II paper.(gloss)paper marking on back Kodak Xtralite II papermining, hydro electricity, victorian alps, construction camps, earth moving machines, secv

This item appears to be a calendar which was in use for a multiple clientele office e.g. post office, commercial office or bank, school or educational administration area, small government office or hospital administration in the Kiewa Valley or its region. The time this item was first used, electrical or battery powered desk and office calendars did not exist for semi isolated rural regions. These type of perpetual calendars not only looked impressive but were not affected by power shortages. This was a time when not all of Victoria was adequately supplied by power. This item is quite relevant to the Kiewa Valley as it demonstrates that the time before the Hydro electricity generators where built (Mount Beauty to Falls Creek), power supplies were not keeping up to the ever increasing demand from city and rural customers. This item was in a period before mass produced automated date and time pieces were available and hand operated date and time pieces were both in a social and commercial sphere a necessity.Wooden box (varnished) with three openings (on the front) detailing ,the day(Monday to Sunday), the date (1st to 31st) and the month (January to December). On the right side of the calendar box are two winding screws (RHS 6 steel) for each opening. These permit the scrolling of the information i.e. day, number and month. This ability results in a desk calendar which is perpetual. On the back there is a steel (screwed on) hanger with a slot for wall screw.perpetual calendar, office calendars, desk calendars, desk furniture

This particular lamp was made for the dinner table or "parlour". This was the most effective indoor lighting before electrical lighting was introduced in the 1940's. These table lights would have still been used after this time as emergency lighting during electrical power shortages (outages). These emergency lighting lamps, including candles, were eventually replaced by battery power. The Kiewa Valley was supplied by electricity well before many other rural regions due to the State Electricity Commission constructing the Kiewa Hydro Electricity power turbines (late 1930's to mid 1950's). Petrol and diesel generators were used in other rural regions before state wide electricity was available.The significance of this kerosene lamp to the Kiewa Valley is that it provides the proof that before the Hydro electricity scheme was established in the valley, householder and commerce relied on candle/kerosene power. Although at certain times before battery and solar energy became the night time lighters the sole source of lighting was candle power and kerosene power. The supply of both however was still required by most of the population by supply from city and larger country town suppliers. This nearly fully glass made table lamp(kerosene) has a large glass bowl/basin like kerosene storage unit with a glass circular finger handle (similar to a ordinary cup). Formed single star like patterns (50mm apart) encircle the centre of the bowl. On top of the bowl sits the metal (brass) wick holder with a small wheel protruding out one side for adjusting the wick length(increasing or decreasing the strength(regulating) of the amount of light projected. Four prongs rise from the circular base light fixture holding the windproof and refractive glass "pot belly" shield. lamp table, kerosene lamp, household lighting (non electrical)

This analog voltmeter is quite a large (industrial type) apparatus which permits the easy monitoring of electrical variations within the large SEC Victoria Hydro Scheme's electrical generators. These generators are powered by the hydro force of "stored" water at a higher altitude. The establishment of both the NSW and Victorian Hydro schemes was achieved from the mid 1900's to the 1960's. At this point in time the need for additional power sources to quench both an industrial and domestic demand for electricity was purely an economic and not and environmental (carbon reduction) factor. This hydro scheme was instigated by "the Government of the day" as a bold move and was the major force of the World War II refugee and "technical" workforce inclusion of skilled and unskilled migration into the Australian environment. Although this mass "invasion" of workers with families was thought of in some circles as intrusive, the expansion of population post war years and its integration into the Australian rural sector, produced the multi- lingual multi-cultural diversity of later years. This voltmeter is very significant to the Kiewa Valley as its use was introduced during the Kiewa Hydro Scheme. Although only a small apparatus it was part of the explosion of human resources into the valley. This influx of population transformed the region from that of a basically quiet rural region to one which evolved into both an industrial and a larger residential community. This evolution in the valley created a change, not only in the "physical" landscape but also the socio-economic expansion which permitted other "tourist" based industries into the valley. This analog volt meter has two metal rods protruding from the "back" of instrument with screw on points for the negative and the positive leads allowing the "current" to flow across the calibrated resistors to indicate on the "face" side the strength of the voltage "power". The "face" of the instrument has a zero point and then five evenly graduated marks from Zero to the "100, 200 and 300" marked points of measures. A large "V" below these pointers indicates that they represent levels of voltage. Three small screws hold the "face" in place. At the back of the meter is an aluminium "clasp" with three protruding screws (positioning fasteners) and a a screw tightening fixture for the correct fastening of the "clasp" into the correction location on the meter "board".Manufacturer's logo "CSG" underneath "ITALIA"kiewa valley tourism, victorian alps, alternate energy supplies, alpine population growth

This transformer lamp system, which has a dial to transform 240 volts to a minimum of 32 volts was used by electrical technicians to inspect internal parts of the large generators (even in small confined spaces). The reason for the reduction of the 240 volts to the 32 volts was for the safety of the inspector. The SEC Victoria Hydro Scheme's electrical generators are powered by the hydro force of "stored" water at a higher altitude. The establishment of both the NSW and Victorian Hydro schemes was achieved from the mid 1900's to the 1960's. At this the point in time the need for additional power sources to quench both an industrial and domestic demand for electricity was purely an economic and not and environmental (carbon reduction) factor. This hydro scheme was instigated by "the Government of the day" as a bold move and was the major force of the World War II refugee and "technical" workforce inclusion of skilled and unskilled migration into the Australian environment. Although this mass "invasion" of workers with families was thought of in some circles as intrusive, the expansion of population post war years and its integration into the Australian rural sector, produced the multi- lingual multi-cultural diversity of later years.This transformer lamp is very significant to the Kiewa Valley as it was introduced as a very small part of the explosion of human resources into the valley. This influx of population transformed the region from that of a basically quiet rural region to one which evolved into both industrial and larger residential community. This evolution in the valley created a change, not only in the "physical" landscape but also the socio-economic expansion which permitted other "tourist" based industries into the valley. This is also a specific electronic item which was manufactured in Melbourne and not sourced from Europe or Asia. This demonstrates the fast evolution of Australian technology to a high standard compatible to that of the rest of the world.This heavy hand held electrical transformer (transforms 240 volts to 32 Volts) an has one leather handle on the top with three small (gauze filtered) air holes. It also has two 2 pin directional cable distribution (clipsal) in/out points 10amps / 240 volts. There is one glassed in volts/ac meter and one variable switch (180 to 150 voltage in settings of 10 volt increments.There are two vents (one on each of the smaller sides). There is also one three pin electrical lead coming out from the top.On one side is a manufacturer's plaque with "ELECTRONIC A & R EQUIPMENT MELBOURNE" and underneath "TYPE 1719, PRI V. 180 250" underneath "V.A. 1250" underneath "CYC 50" underneath "SEC V. 115" underneath "SEC A. 10 . 8". The label on topside "CAUTION SET SWITCH TO 250 v BEFORE CONNECTING TO MAINS THEN, WITH EQUIPMENT OPERATING, SET METER TO RED LINE.kiewa hydro electricity scheme, victorian state electricity commission, transformers

This milli-volt meter was manufactured after 1950 and used by the SEC Vic (Kiewa Hydro Electricity Scheme) from that date until late 1900's. It was used to measure very small voltages associated with the operation of the various Hydro Generators. The readings were able to be shown by the resistor in use in the current circuit. During this time period, high quality testing instruments were either sourced from Europe or England.This milli-volt meter is very significant to the Kiewa Valley as it was used by those electrical technicians, who were part of the Kiewa Hydro Scheme. An "off spin" from the Scheme was the beginning of an explosion in "human" resources into the Kiewa Valley. This influx of population transformed the region from that of a basically quiet rural region to one which evolved into both industrial and larger residential community. This evolution in the Kiewa Valley created a change, not only in the "physical" landscape(better roads and infrastructure), but also the socio-economic growth within the Valley allowing other "tourist" based industries to expand within the valley and Alpine areas.This millivolts DC meter was used in the 1950's. It is contained in a wooden box and has two coloured (red/black, positive and negative) screw tight knobs which have bake-lite connections. It also has a covered (black tin) view meter marked from zero to 10 millivolts. Underneath this and within a round bake-lite is a small adjustment screw. The top of the box is fastened onto the main structure by six brass screws. The back of the structure is fastened by eight brass screws and there are four small bake-lite rest knobs.On the face of the millivolt compartment , and at the top "TO BE USED WITH DIAL HORIZONTAL TEMP. COEF. +- .08 % PER oC. Underneath the scale "MILLIVOLTS D.C. F.G." (LEAD RESIS. .05 OHMS)" underneath and to the left "MADE IN ENGLAND BY" "EVERSHED & VIGNOLES Ltd" and to the right "No. 857842" underneath Regd. TRADE MARK MEGGERkiewa valley tourism, victorian alps, alternate energy supplies, alpine population growth

This Timing Relay is quite a large (industrial type) apparatus. The Timer is started by having a voltage of 250 volts direct current (as supplied by batteries). A DC motor then rotates driving into a clockwork mechanism, the output of which is an arm rotating at the same speed as a minute hand on a clock. Attached to this arm is a mercury switch which tips and makes an electrical circuit operate in a sequence control system. The sequences that use these timers are when starting and stopping Hydro Generators. They check that the machine has connected to the power system grid before 20 minutes duration. Brakes must go on for a set time when shutting down a generator slowing at the right speed as measured by this apparatus. These generators are powered by the hydro force of "stored" water at a higher altitude. The establishment of both the NSW and Victorian Hydro schemes was achieved from the mid 1900's to the 1960's. At this point in time the need for additional power sources to quench both an industrial and domestic demand for electricity was purely an economic and not and environmental (carbon reduction) factor. This Timing Relay apparatus is very significant to the Kiewa Valley as its use was introduced during the Kiewa Hydro Scheme. Although only a relay apparatus, it was however part of the explosion of human resources into the valley. This influx of population transformed the region from that of a basically quiet rural region to one which evolved into both an industrial and a larger residential community. This evolution in the valley created a change, not only in the "physical" landscape but also the socio-economic expansion which permitted other "tourist" based industries into the valley. This Hydro Scheme was instigated by "the Government of the day" as a bold move and was the major force behind the acceptance of World War II refugee and "technical" workforce. Inclusion of skilled and unskilled migration into the Australian environment was of a higher priority than a selective quota system of later years.. Although this mass "invasion" of workers with families was thought of in some circles as intrusive, the expansion of population post war years and its integration into the Australian rural sector, produced the multi- lingual, multi-cultural diversity of later years.sec vic kiewa hydro scheme, alternate energy supplies, alpine population growth

This general purpose Multi-meter was manufactured after 1950 and used by the SEC Vic (Kiewa Hydro Electricity Scheme) from that date until late 1900's. It was used to measure very small voltages associated with the operation of the various Hydro Generators. The readings were able to be shown by the resistor in use in the current circuit. During this time period, high quality testing instruments were either sourced from Europe or England. This particular meter was manufactured in the Netherlands. This type of "old" analogue meter was replaced by digital meters whose electronic components are a fraction of the size of the older analogue ones.This analog General Purpose multi-meter is quite a large (for handheld mobile) apparatus which permits the easy monitoring of electrical variations within the large SEC Victoria Hydro Scheme's electrical generators. These generators are powered by the hydro force of "stored" water at a higher altitude. The establishment of both the NSW and Victorian Hydro schemes was achieved from the mid 1900's to the 1960's. At this point in time the need for additional power sources to quench both an industrial and domestic demand for electricity was purely an economic and not and environmental (carbon reduction) factor. This hydro scheme was instigated by "the Government of the day" as a bold move and was the major force of the World War II refugee and "technical" workforce inclusion of skilled and unskilled migration into the Australian environment. Although this mass "invasion" of workers with families was thought of in some circles as intrusive, the expansion of population post war years and its integration into the Australian rural sector, produced the multi- lingual multi-cultural diversity of later years.This General Purpose Multimeter is an analogue meter i.e. it has a needle arm that moves across a scale of divisions. This is a large(hand held) device due to the mechanical movement system within and the large size of its electronic components of its circuitry.There are two black bake-lite push buttons operating the wire inserts Positive/negative leads at the top. The meter (protected with a glass window) has clearly marked graduations (top - volts, bottom amperes). Below this are two bake-lite dials (left "potentiometer the right one measuring range selector). Below this is a "dial" switch to input the desired resistance measuring range "V" Front "H&B ELIMA" and to the right Elavi 15n. 0n the front side is a label "STATE ELECTRICITY COMMISSION OF VICTORIA TRANSMISSION DEPT E.C.No." On the bottom of the base is a stenciled layout of the battery "layout" including the fuse . The information notice is presented in five languages starting with German, English,French, Italian, Spanish and Dutchsec vic kiewa hydro scheme, alternate energy supplies, alpine population growth