Infographic highlighting Embry-Riddle Aeronautical University’s EcoCAR bio-diesel hybrid test at Daytona International Speedway, showing a blue electric car with a charging icon, racetrack stands, and a checkered flag, alongside performance stats and a summary table.

ECOCar Daytona Test Vehicle Reaches 65 mph at Daytona

Embry-Riddle Teams Up with EcoCAR to Test Bio-Diesel Hybrid at Daytona

Embry-Riddle Aeronautical University’s EcoCAR: The Next Challenge team recently had the thrill of testing their bio-diesel hybrid vehicle on none other than the iconic Daytona International Speedway. Read the original coverage here.

The Day at Daytona: Performance on the Tri-Oval

On a sunny Wednesday morning, Riddle students put their bio-diesel hybrid through its paces along the smooth, flat apron of the famed 2.5-mile tri-oval. The vehicle reached speeds up to 65 mph, providing an ideal setting for gathering real-world performance data.

After the exhilarating laps, the team gathered at the legendary start/finish line at Daytona. It was a proud moment—not just a snapshot—but a testament to their dedication, skill, and the vehicle’s capabilities.

Infographic highlighting Embry-Riddle Aeronautical University’s EcoCAR bio-diesel hybrid test at Daytona International Speedway, showing a blue electric car with a charging icon, racetrack stands, and a checkered flag, alongside performance stats and a summary table.
Embry-Riddle students tested their extended-range electric vehicle—powered by recycled vegetable oil—on Daytona’s tri-oval, reaching 65 mph during the EcoCAR: The Next Challenge competition.

What Is EcoCAR Daytona Test Vehicle: The Next Challenge?

EcoCAR: The Next Challenge is a prestigious, three-year collegiate automotive engineering competition that brings together 16 universities across North America. The goal: to design, build, and test vehicles that deliver improved efficiency and lower environmental impact—while still ensuring safety, performance, and consumer appeal.

This initiative is a collaboration between the U.S. Department of Energy and General Motors, with overall program management by Argonne National Laboratory. It’s a stellar example of academic innovation meeting real-world application.

Three-Year Journey: From Simulation to Speed

Year 1: Design & Simulation

In the initial year, teams focus on model-based design and simulation—laying the critical groundwork. By running virtual simulations, students can refine vehicle architecture, powertrain integration, and energy management before any physical parts are assembled.

Year 2: Prototype Build

The second year transitions from theory to hands-on execution. Here, teams build their actual prototypes, integrating electric drive systems, fuel conversion components, and control architecture—turning blueprints into rolling testbeds.

Year 3: Real-World Testing

Year three is the culmination: vehicles hit the track. And for Embry-Riddle, upping the ante at Daytona International Speedway symbolizes that real-world performance validation—complete with telemetry, handling assessments, and bio-diesel system stress testing.

The Vehicle: Extended-Range EV Powered by Recycled Oil

The hybrid in question is not just any EV. It’s an extended-range electric vehicle capable of running solely on electric power for about 25 minutes. Then, it switches to a second mode—converting used cafeteria vegetable oil into bio-diesel for continued propulsion.

This creative approach harnesses otherwise wasted resources—transforming meal remnants into travel energy, weaving together sustainability and innovation seamlessly.

Sustainability Meets Innovation: ECOCar Daytona Test Vehicle

This project highlights the power of multidisciplinary collaboration. Students dive deep into mechanical, electrical, and environmental engineering—while also navigating the complex logistics of converting recycled oil into fuel, managing emissions, and optimizing hybrid control systems.

Infographic showing Embry-Riddle Aeronautical University students’ EcoCAR bio-diesel hybrid test at Daytona International Speedway, with a blue electric car graphic, racetrack stands, checkered flag, and performance statistics.
Embry-Riddle students test their extended-range EV—powered by recycled vegetable oil—on Daytona’s tri-oval, hitting 65 mph during the DOE-, GM-, and Argonne-run EcoCAR competition.

Plus, it’s more than engineering. The EcoCAR initiative pushes students to consider real-world user needs: Will consumers accept a vehicle powered by vegetable oil? Can it meet performance expectations? Can it ensure safety and reliability? These are challenges that future automotive professionals must tackle—and Embry-Riddle is preparing them well.

Why Daytona? Strategic Selection for Real Testing

You might wonder: why Daytona? The venue offers an unmatched combination of smooth surfaces, high speeds, and a nod to motorsport heritage. Unlike typical road tests, the tri-oval provides a controlled, consistent environment—perfect for repeatable testing, data collection, and comparative analytics.

Plus, it’s a morale booster—testing on a legendary track adds an emotional and symbolic dimension to months of lab work.

Looking Ahead: The Future of ECOCar Daytona Test Vehicle and Beyond

While this Daytona event was a standout, it’s one moment in a longer journey. As the EcoCAR competition evolves, so do the stakes: future teams are likely to incorporate advanced battery chemistries, renewable fuels, even autonomous control features.

Meanwhile, graduates from Embry-Riddle’s team are entering industries hungry for sustainable transport solutions. Their hands-on experience—from simulation to track testing—gives them an edge in the green automotive revolution.

Dive Deeper

  1. Learn more about the EcoCAR: The Next Challenge competition at the official EcoEagles site.
  2. For updates on events at the venue, check the Daytona International Speedway site here—or give them a call at 1-800-PITSHOP for ticket info.

Discover more from The Green Living Guy, Green Guy

Subscribe now to keep reading and get access to the full archive.

Continue reading