By Frank Ross

Unlike the usual fare of fire-breathing dragons that come off the line in prototypical high performance automotive competitions in this country, the vehicles involved in the fourth annual Formula Hybrid™ competition were looking forward to a “greener” propulsion system and that captured the imagination of the management at Storm Copper Components.

SJSU's Formula-Hybrid entry cruises the track during performance trials.

Storm Copper has a track record of commitment to the development of innovative technology but this project was set on a track of a different nature whose destination was of the same bent, so Storm was enthusiastic about sponsoring San Jose State University’s entry into the annual Formula Hybrid™ competition. This competition was the fourth annual, conducted by the prestigious Thayer School of Engineering at Dartmouth College in New Hampshire, and held in coordination with the Society of Automotive Engineers (SAE).

The Formula Hybrid competition is an educational program that serves to challenge and inspire teams of university undergraduate and graduate students to conceive their own design for hybrid-powered cars, and then to fabricate, develop and compete with other students from around the world. Students are required to work across disciplinary boundaries, such as electrical and mechanical engineering, and also to enlist the support of grants, awards and corporate sponsorships.

Although 100 pages of rules determined the outcome, teams are allowed great freedom and flexibility in the design of these vehicles, with the most significant requirement being a mandatory mechanical/electrical hybrid drive train. The concept given to students is to design and build a prototype vehicle that is to be ultimately produced for the consumer, so styling, acceleration, braking and handling performance are all factors that weigh heavily in the judging process.

SJSU's team poses for a group photo at the track in New Hampshire.

As the eleven student team members benefit from the experience, the underlying ambition of this program is to further the goal of developing a viable alternative to carbon based transportation. John Monson, Team Leader, sees the competition as an opportunity to demonstration to automotive consumers that hybrids are capable of high performance acceleration and handling characteristics that exceed the expectations of economical forms of transportation typical of the hybrid concept vehicle.

The 2010 SJSU entry was originally a gas-electric hybrid, but in the final weeks before the competition a booster exploded so they entered the full-electric powered division. That’s where Storm contribution to the program became a critical component.

Copper sheeting was used for battery busbars to connect the 140 lithium iron phosphate batteries that supplied power to the experimental car’s propulsion system.

According to the project’s electrical technical adviser, Matthew Kihlthau, the .24″ x 48″ copper sheet that Storm contributed to the project was used to fabricate the copper bus bar for fuses that provided the required electrical safety element for the competition, the copper sheeting also served as the battery bus plate used as the main connector for the 140 lithium iron phosphate batteries that supplied power to the experimental car’s propulsion system. The car’s electrical propulsion system, which enabled a top speed of 60 mph, with a capacity of 90 minutes or roughly 20 miles, produced 200 amps of continuous power, with a peak rating of 230 amps at 102.2 volts.

For this 4th annual competition – and SJSU’s first Formula-Hybrid challenge – the judging began in May at the New Hampshire Motor Speedway, where 30 teams from five countries presented their vehicles for a complicated mechanical inspection. Following the inspection, students made a presentation to industry experts from Toyota, Chrysler and other auto companies, touting the costs, design and marketing strengths of their vehicle. Once the inspections and presentations were completed, the racing began. Unlike typical auto races, where the checkered flag goes to the car that crosses the finish line first, this competition selects a winner based on the way the car is designed, built and most importantly the measured performance of drive train innovation and fuel efficiency.

Copper bus bar was used for fuses that provided the required electrical safety element for the competition.

San Jose State University’s team finished second in the Hybrid in Progress category, behind a collective effort fielded by Florida A&M/Florida State University. More importantly, the road to a more environmentally friendly form of automotive transportation in the future was advanced through the process of education, innovation, experimentation and the classic application of American ingenuity. Such are the things of the future, and Storm Copper’s commitment to alternative energy and innovation that will secure our nation’s future for both commerce and individual consumers.

For more information on the San Jose State University Formula-Hybrid project, check out the SJSU project Web site.

Here’s a competition summary video that illustrates the SJSU effort well.

If you have modular batteries in need of copper posts, plates or other connectors, non-plated or plated in bright tin, lead, lead-tin or other plating conducted entirely in-house, consider Storm Copper.

Storm’s Copper Components Play a Role in Alternative Energy Boom
By Frank Ross

The Solar Electric Generating Station IV power plant in California consists of many parallel rows of parabolic trough collectors that track the sun. The cooling towers can be seen with the water plume rising into the air, and white water tanks are in the background. Photo courtesy of Sandia National Laboratory.

The Solar Electric Generating Station IV power plant in California consists of many parallel rows of parabolic trough collectors that track the sun. The cooling towers can be seen with the water plume rising into the air, and white water tanks are in the background. Photo courtesy of Sandia National Laboratory.

There is good news for the power-consuming public in general and alternative energy suppliers and installers as well. The cost of solar electricity is likely to drop by 50% in 2009, compared to the previous year, due largely to a big drop in the price of solar panels. This encouraging news comes from New Energy Finance, a London-based provider of industrial information and analysis to investors, corporations and governments developing clean energy, low-carbon technologies and carbon markets.

This decrease refers to what’s commonly called the “levelized cost of electricity,” an analytical concept that looks at the cost of producing the power over the lifetime of a solar power plant. These calculations include construction and operational costs, but do not consider government subsidies. Utilities and banks that finance them utilize these calculations to evaluate their investment amortized over a facilities operational lifespan.

A researcher at a DOE laboratory uses a physical vapor deposition system to create a high-efficiency copper indium gallium diselenide solar cell.

A researcher at a DOE laboratory uses a physical vapor deposition system to create a high-efficiency copper indium gallium diselenide solar cell.

According to Jenny Chase, head of solar research at New Energy Finance, in the worldwide market, the cost of solar electricity fell to as much as $160 per megawatt hour in 2009. This figure was achieved by installations in sunny locations such as deserts in the western United States, using thin-film solar panels that are less expensive. The US national renewable energy research facility NREL achieved an efficiency of 19.9% for the solar cells based on copper indium gallium selenide thin films, also known as CIGS solar cells.

The cost of building these solar energy systems can be as low as $3 per watt in prime Sunbelt regions. Projects slated for less productive locations require the more costly crystalline silicon solar panels, a factor that could more than double their levelized cost. Other forms of alternative power, such as geothermal and wind are expected to experience a drop of 10% in 2009, as compared to the previous year.

Storm Copper Components are key to solar energy expansion
In addition to the decrease in price for photovoltaics, Storm Copper has played a role in reducing the costs of alternative energy by supplying competitively priced copper components to four of the larger manufacturers of Solar energy equipment and systems. Armed with the advantage of a Flex-Tooling system Storm produces OEM parts quickly without the expense and long production cycles required for hard dies. Naturally, that also means a quick turnaround time, which is often key to installations tied to a deadline.

Many of these solar power installations are located in extremely harsh environments in deserts and mountainous regions of the southwest, where tin plating of copper components is mandatory, and that’s one of Storm Copper’s specialties. Electroplated components from Storm experience full emersion and are tin plated to a thickness of .0002, compared to many competitive coatings that only measure .00005 in a pre-flashing process. Storm also offers several different types of tin plating as well as tin/lead plating used mainly in applications involving lead/acid batteries.

Solar batteries with Storm cables.

Solar batteries with Storm cables.

Solar panels produce DC power that has to be converted to AC, through the use of inverters. Smaller home installations often include a bank of batteries which serve to collect the power from the panels, and in turn the batteries are connected to an inverter to meet the electrical requirements of a home. All of the connections in these systems require high efficiency copper battery connectors (link to solar cables on Store 1) that are tinned because of the exposure to lead-acid batteries, and Storm supplies a full line of solar inverter and interconnet cables for battery banks.

For fast quotes on copper components, a quick turnaround time and no minimum order; give the OEM Sales staff at Storm Copper a call at OEM Sales 1-866-716-9773 , or log onto the web site. Either option provides fast, friendly service.

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