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       Bikes in Overseas
10 Statement of significance 10
 

In 1996 production began in Australia on a bicycle which has taken the bike racing fraternity by storm. Nicknamed the "Superbike", it features a special lightweight carbon fibre frame designed by a collaborative project team from the Royal Melbourne Institute of Technology (RMIT) and the Australian Institute of Sport (AIS). It is an excellent example of the application of scientific research and aerodynamic design to sport.

The team was headed by Lachlan Thompson, an aerospace engineer specialising in aerodynamics and lecturer at RMIT. The project began almost by accident in 1992 when Thompson needed a cyclist for a photo-shoot. Olympic cyclist Kathy Watt was chosen at random off the street and in return she asked to have the aerodynamics of her bicycle and riding position tested in the RMIT's wind tunnel. The Australian Olympic cycling coach, Charlie Walsh, heard about the incident and the project grew from there.

The project team worked closely to achieve a bicycle that was not only aerodynamically superior, light and strong but was simple, versatile and reliable. From the start it was intended to design a bicycle suitable for mass manufacture but at the same time have the quality and precision of a jet fighter.

At each stage the bike was tested in the wind tunnel and test ridden by Australia's elite cyclists. The results of this research saw the conventional tubular frame superseded by an aerodynamically-designed composite monocoque shell made of carbon fibre. This material is used widely in space programmes and Formula One motor racing and reduces aerodynamic drag. The use of carbon fibre enables any shape to be formed with maximum strength and minimum amount of material. The conventional handle-bars were eliminated and carbon fibre handle-grips were attached directly to the wheel-forks. This feature, as well as the lightweight frame, (the bicycle only weighs 5 kg), provides extra strength between the seat and pedals where the main power is exerted.

Manufacture of the Superbike began in Melbourne 1996 by special company set up for the purpose, Bike Technologies. The person chosen to head the company was Salvatore (Sal) Sanonetti, an Olympic cyclist who had ridden in the Australian team at Montreal in 1976. Sansonetti not only understood bikes but metal technology as well. His company, Nezkot, made injection-moulding dies for clients such as Holden and Ford. This technology was not that different from the required manufacture of carbon fibre, one-piece bicycle frames. Track and road bikes were developed for the Commonwealth Games and the Atlanta Olympics wwhere numerous gold medals were won. At Atlanta the Superbike was dubbed the most superior racing frame in the world.

The development of the Superbike, through the collaboration of athletes and high-tech research facilities, illustrates the emergence of sophisticated sports science in Australia. The Superbike received an Australian Award for Excellence by the Institution of Engineers Australia in 1995 as well as the Award for Best Technical Development, Road or Track, at the 8th Annual Velo News Awards in 1995.

Further Information

Lane, Terry, "Push to the limit" in The Australian Way, Nov 1996, pp.84-87.
McLean, Brian, "Super Roo : The Story Behind The Bike" in Bicycling Australia, Nov 1994, pp.50, 55.
Thompson, Lachlan, "Jumpstart for bicycle manufacture in Australia" in Engineering World, Aug 1996, pp. 4-7.
Description
Bicycle, Olympic 'Superbike', carbon fibre / metal, Australian Institute of Sport / Royal Melbourne Institute of Technolgoy / Bike Technologies, Australia, 1997

The "Superbike" bicycle comprises a special frame designed and made in Australia while the remaining components, disc wheels, cranks, pedals, seat, chain, etc, are made by the Italian company, Campagnolo, of Vicenza, Italy. (This company is a sponsor of the Olympic cycling team.)

The conventional tubular frame has been superseded by a composite monocoque shell made of carbon fibre which is scientifically shaped to reduce aerodynamic drag. The conventional handle bars have been eliminated and instead carbon fibre handlegrips are attached directly to the wheelforks. This feature, together with the lightweight frame (the bicycle only weighs 5 kg), provide extra strength between the seat and pedals where the main power is exerted. Furthermore, the sweeping lines of the Superbike optimise the aerodynamic shape which, combined with the lightweight carbon fibre shell, requires five per cent less power to travel at a given speed than a conventional tubular framed racing bike.

The use of the carbon fibre construction enables any shape to be formed with maximum strength and minimum amount of material. This is why carbon fibre is used so widely in the space programmes and Formula One motor racing.

Unlike most equipment used by elite athletes, the Superbike has been designed for low cost, high volume manufacture.
Production notes
The Superbike was designed and built by a project team from the Royal Melbourne Institute of Technology (RMIT) and the Australian Institute of Sport (AIS) headed by Mr Lachlan Thompson an aerospace engineer and lecturer at RMIT.

The whole project started by accident in 1992 (before the Barcelona Olympics), when Thompson, who specialises in aerodynamics, was setting up a photo session to contrast the modernity of a jet fighter against the antique technology of a bicycle. The cycling model failed to arrive so Thompson went into Swanston Street, Melbourne and spotted a young woman cyclist, who happened to be Kathy Watt. In return Thompson offered to put Watt in the RMIT wind tunnel to check the aerodynamics of her bike and riding position. When biomechanist Dr Brian McLean at the AIS heard about this he wanted all the other AIS cyclists checked in preparation for Barcelona. While working in the wind tunnel Thompson revealed he had already done some preliminary work on bicycle design which had been shelved. One thing led to another and a project team was formed and the Superbike developed in consultation with Olympic cycling team coach, Charlie Walsh.

Initially work began on a three-tube frame bike but after the Union Cycliste Internationale (UCI) rules were changed regarding their insistance on a triangular frame configuration, work on a new frame began in earnest

The research team included scientists, engineers, technicians and students. Most of the hard work was put in by engineering students, Vaughan Bolwell and Rodney Peck who worked tirelessly during the critical stages of the bike's development.

The choice of using carbon fibre technology, an area where RMIT has special expertise, was an obvious one.

Thompson was determined from the outset that the product his team created had to be suitable for mass manufacturing, but at the same time it had to have the quality and precision of a jet fighter.

The Superbike is made in Australia by Bike Technologies headed by Mr Salvatore (Sal) Sansonetti.

Once the bike had been designed the project leader, Lachlan Thompson, was determined to put it into production in Australia. The problem was that bicycles had not been made in Australia since 1990 and from then had been imported from Japan, Taiwan, China and the U.S.A.

Thompson was introduced to Sal Sansonetti who wanted to make bicycles, by a friend Thompson had worked with from Aerospace Technologies before RMIT. Sansonetti was a former Olympic cyclist who rode in the Australian team at Montreal in 1976. He was also the Italian Champion in 1970 and won two stages of the 1971 Tour of Italy and the Milan Six. Not only did Sansonetti understand bikes and metal but he is also the owner of a company, Nezkot, which makes injection moulding dies for clients such as Holden and Ford. This technology was not too different from the manufacture of carbon fibre, one-piece bicycle frames.

A new company was formed in 1996, Bike Technologies, not only to provide bikes for the AIS but to manufacture the Superbike in track, touring and mountain bike types for world distribution. Networks are currently being established overseas. Bikes have already been sold in England, USA, South Korea, South Africa and New Zealand.

A percentage of the turnover from Bike Technologies is earmarked for research and development.
Acquisition credit line
Purchased with funds provided by Ross Simpson Engineering and a donation by the manufacturer, Bike Technologies, 1998

tank lie dummy air scoops, with an integrated fuel tap. The company has taken pains over the smallest detail as is apparent by a lip on the right side footrest to retain ones foot on the peg and prevent shoes scuffing a hot crankcase. Switchgear on the Libero is more than adequate. Dogleg levers fit ones hands smartly and soft grips leave no room for complaint.

The LX 4-stroke engine looks bottom heavy with its prominent sump area and 106cc cylinder jutting upwards. Sleeve dimensions are under-square, with bore and stroke at 49mm x 56mm, the classic design for frugality born of low-end torque. It’s no power snorter, putting out 7.6bhp at 7500rpm and 0.8kgm at 6000rpm of torque, though these numbers ring fair for the segment. Breathing via a conventional carburettor and two-valves the engine is principally the same as used on the old Libero. A four-speed gearbox employs one down and four up heel and toe operated shifts. Flogging the bike for its fastest acceleration resulted in 8.99 seconds from a standing start to 60kph, which though on the slower side, is not an area in which a mileage commuter is built to excel in. The Libero LX is a comfortable steed-- its riding position fairly upright with handlebars pleasantly wide for easy maneuverability in the tightest situation. The ride itself is smooth, long distances not causing any undue fatigue. The seat offers the right width, height and comfort. The Libero LX uses a twin-downtube frame to cradle its engine and is part of a minority of Indian motorcycles yet to switch to a box-metal swing-arm. This frame provides the bike exceptional straight line manners, as was proven while encountering strong gusts of cross-wind on our highway run, the bike staying rock steady and in no threat of losing its line. Hostile, was character displayed by the LX during our brake testing. In spite of managing to stop within a reasonable 18.9 meters in 2.37 sec from 60kph to rest, the bike regularly hurled out its rear in a startling manner and had our tester grappling with the bars as a wrestler does his opponent. Let’s sum up this section so as to prevent our giving readers an unfair impression: the Libero LX will not disappoint riders when ridden in the manner it is built for, but, it’s surely not the bike to try and race on. That would have similar results to wearing shorts and keds to a wedding.The Libero builds on its strong case with economy numbers as good as any. Subjecting the bike to swarming Indian city traffic on our fuel test route, it managed 56.7kpl. Cruising at sustained speeds out on the open highways returned an ample 58.3kpl.


Unable to put our finger on what exactly it is that’s restraining the Libero from soaring to success—we only guess responsibility lay with its ugly front bikini. What we are convinced of though, is the fact that here lies a good value for money motorcycle to purchase. Sure, it may lag a smidgen behind the Centras, Splendors, Boxers and Velocitys of today in the sprint and handling departments, but it sure leaves them all behind with its undeniable refinement, mellifluous engine and overall high build quality

 
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