Fennec

A compact powerhouse defined by its perfect balance of speed, height, and aerial precision.

The Fennec is a compact, agile vehicle that has become an iconic staple in the Rocket League universe since its introduction on March 9, 2021, during Season 2. Originally designed as a sleek, futuristic racer with sharp angles and a low profile, it quickly gained a reputation for having one of the most balanced hitboxes in the game. While it uses the Octane hitbox, many players consider it to possess a unique 'sweet spot' that bridges the gap between the Octane's height and the Dominus's length, making it a favorite for aerial maneuvers and precise dribbling. In the lore of the Rocket League world, the Fennec represents the pinnacle of aerodynamic engineering tailored for high-speed arenas. It is often associated with drivers who prioritize quick reflexes and technical skill over raw power. The car's design language suggests a lineage of vehicles built for agility in tight spaces, making it a perfect choice for pilots navigating the chaotic environments of professional rocket-powered soccer matches.

Quick Facts

Release era: Season 2

Lore & Background

Within the sprawling history of Rocket League, the Fennec emerged as a testament to the evolution of vehicle design. As arenas grew more complex and plays became faster, engineers sought a chassis that could react instantly to the unpredictable bounces of the ball. The Fennec was the result: a machine stripped of unnecessary bulk, focusing entirely on responsiveness. Its low center of gravity allows for rapid rotations mid-air, while its identical length to other cars using the Octane hitbox ensures consistency in all scenarios. The car's legacy is cemented not just by its stats, but by the community that adopted it as a symbol of technical mastery. In the competitive circuit, the Fennec has been the steed of choice for numerous champions who rely on split-second decision-making. It represents a philosophy where control trumps size; the pilot does not need to be the biggest or fastest, but rather the most precise. This ethos resonates with fans worldwide, turning the Fennec into more than just a vehicle—it is a badge of honor for those who master the art of rocket soccer.

Reader's Guide

The Fennec is widely recognized as a Type-4 vehicle, sharing its hitbox classification with cars like the Octane but possessing unique visual proportions that many players feel offer superior control. In terms of performance stats, the Fennec features standard acceleration and speed values consistent with other cars in its class. However, its defining characteristic is often attributed to its perceived 'hitbox feel.' While statistically identical to the Octane regarding hitbox dimensions, the Fennec's shorter visual length relative to its height gives drivers a sense of increased precision during dribbling and aerial contact. Drivers who choose the Fennec are typically those who favor technical playstyles. Promotional material often highlights the car's sleek, futuristic aesthetic, appealing to pilots who value style alongside substance. The vehicle is frequently associated with agility-focused strategies, where quick turns and rapid aerial adjustments are paramount. Whether used for defense or offense, the Fennec rewards players who can master its responsive handling.

Did You Know?

The Fennec is named after the Fennec fox, a small desert fox known for its large ears and agility.
Team TERA TU Graz won the Shell Eco-marathon Europe category Prototype Battery Electric twice, in 2011 and 2014, with their car Fennek.

Historical Evolution and Institutional Growth

Founded in 1811 by Archduke John of Austria as the Joanneum, this institution stands as Austria's oldest center for science and technology education. Initially offering courses in physics, chemistry, astronomy, mineralogy, botany, and technology, it saw Friedrich Mohs appointed as its first professor of mineralogy just a year later. Over the centuries, the college underwent significant structural transformations, evolving from a regional technical college under Styrian governance to an Imperial-Royal institution under Austrian federal control in 1874. A pivotal moment occurred in 1901 when it gained the authority to award doctorates. The mid-20th century brought further expansion, with faculty divisions increasing from three in 1955 to five by 1976, coinciding with its renaming to Graz University of Technology. The implementation of new university laws in 2004 finalized its current structure of seven faculties, cementing its status as a leading public research university within the Austrian Universities of Technology network.

Academic Structure and Research Scope

The university operates through seven distinct faculties covering architecture, civil engineering, computer science, electrical engineering, mechanical engineering, mathematics, and technical chemistry. It provides a comprehensive educational portfolio with 19 bachelor's and 36 master's programs, many of which are taught in English to attract international talent. Graduates earn degrees such as BSc, MSc, or the traditional Diplom-Ingenieur, while doctoral training is organized into 14 English-speaking schools. Financially supported by a federal budget of approximately €218.7 million alongside significant third-party funding, TU Graz collaborates closely with the University of Graz on natural sciences. This extensive academic framework supports roughly 1,900 annual graduates and maintains a vast floor space to accommodate its diverse scientific endeavors.

Student Innovation and Competitive Excellence

Beyond traditional classrooms, the university is renowned for its vibrant student teams that compete globally in engineering challenges. The TU Graz Racing team, established in 2002, constructs vehicles from scratch annually, notably winning Formula Student competitions before shifting exclusively to electric categories in 2021. In energy efficiency, the TERA team secured victories with their Fennek prototype, named after a desert fox. Robotics is another stronghold, featuring teams like TEDUSAR in urban search and rescue simulations and GRIPS, which claimed the RoboCup world championship in logistics in 2023. Innovation extends to aerospace with rocket development teams winning European challenges and satellite contributions to missions like TUGSAT-1. Additionally, cybersecurity groups and brain-computer interface racers demonstrate a culture where students actively shape future technologies through hands-on international competition.

Architectural Heritage and Notable Alumni

This architectural legacy is mirrored in its distinguished alumni who have shaped global industries. Raimund Abraham and Günther Domenig are celebrated for their contributions to architecture, while Anselm Franz emerged as a pioneering jet engineer responsible for critical turbine engines during the mid-20th century. The institution has also produced influential figures like Friedrich Emich in chemistry and Silke Bühler-Paschen in physics. Former rector Ernst Hiesmayr exemplifies the blend of academic leadership with artistic achievement. These individuals reflect the university's long-standing commitment to excellence, tracing a lineage from early 19th-century founders to modern innovators who continue to influence technology, design, and scientific research worldwide.