Tsinghua Huoshen Team, equipped with Accelerated Evolution robots, defended its RoboCup 2026 title, with 38 teams using the platform, accelerating the trend of platform-based embodied intelligence hardware.
[Incheon, South Korea, July 5, 2026] Today, the 2026 RoboCup officially came to a close in Incheon, South Korea. In the highly anticipated humanoid robot category, the Chinese team Tsinghua Vulcan, equipped with Accelerated Evolution's Booster T1, successfully defended its world championship title in the Large Division. After breaking a 28-year championship drought for Chinese teams in Brazil last year, the Vulcan team reached the top once again despite targeted challenges from the world's top teams, demonstrating its leading expertise in embodied intelligence algorithms. At the same time, this year's competition sent a signal with broader industry implications: a "platform consensus" for the underlying hardware of embodied intelligence is rapidly taking shape globally.
At the intersection of competitive sports and cutting-edge technology, successfully defending a title means the technical system has withstood continuous scrutiny and extreme pressure from the world's top peers. However, the most industry-shaking event at this year's RoboCup was not a single team's victory, but the fact that more and more teams from different countries and different technical approaches stood on the podium with the same robot. According to competition data, 38 teams at this year's RoboCup used Accelerated Evolution robots as their competition platform. In addition to Tsinghua Vulcan using the Booster T1 to defend its title in the Large Division, the B-Human team won the Middle Division championship with the Booster K1, and Wuhan University's Invic team claimed the Small Division title with the Booster K1 Air — Accelerated Evolution robots swept all gold medals across every bipedal humanoid division. Furthermore, multiple international powerhouse teams, including HTWK from Germany and UT Austin from the United States, chose Accelerated Evolution robots and reached the podium in their respective divisions.
The phenomenon of such "large-scale deployment" marks a fundamental shift in the competitive focus of robot competitions, from "who can build a robot" to "who can make a robot smarter." In previous years, participating teams often had to build their robot hardware from scratch, consuming vast research resources on "reinventing the wheel" in mechanical structure design, hardware development, and basic motion control. This year, however, the research paradigm underwent a clear leap: top teams focused their efforts intensely on pushing the boundaries of high-level capabilities such as visual perception, real-time decision-making, and multi-agent coordination. Accelerated Evolution, meanwhile, served as the underlying platform, continuously iterating on the Booster's core legged locomotion control capabilities, enhancing the robot's physical reliability in high-speed running, sudden stops and turns, fall recovery, and continuous motion. This decoupling of software and hardware in the industry division of labor allowed complex code to be reliably realized in real-world environments.
More profoundly, the maturation of underlying hardware and development tools is dramatically lowering the barrier to entry for embodied intelligence innovation. This year's humanoid division featured one of the youngest teams in competition history: Macau Pui Ching Middle School. Using the Booster Studio simulation development tool, these young developers were able to develop, train, and validate algorithms in a highly realistic digital environment before seamlessly transferring them to real robots. From top universities and leading laboratories to broader communities of individual developers and middle school teams, an open, shared embodied intelligence R&D ecosystem is rapidly taking shape.
RoboCup has long been recognized by academia and industry as the most rigorous real-world physical testing ground for embodied intelligence. There are no ideal simulation parameters or standard answers on the field — robots must truly see the ball, understand teammates' intentions, and withstand collisions, falls, and interference at high speed in a constantly changing environment. Football is merely the ultimate stress test; what is truly being evaluated is a robot's comprehensive ability to survive in the real world. Within this context, legged locomotion control is the physical foundation upon which all higher-level intelligence operates. Only when a robot can reliably counter gravity and friction does intelligent decision-making truly matter. The chaos and uncertainty that robots are learning to handle on the field today are precisely the technical building blocks for their deployment in real-world scenarios tomorrow.
True progress in the robotics industry has never been about having every team reinvent a robot from scratch — it is about enabling more innovators to stand on a shared, solid foundation and continuously expand the boundaries of technology. As "The Champion behind the Champions," Accelerated Evolution is demonstrating to the world its strategic value as embodied intelligence infrastructure. Through continuous refinement of robot hardware, legged locomotion control capabilities, and the Booster Studio development tool, Accelerated Evolution is committed to helping outstanding research teams and developers around the globe bridge the physical divide, accelerating the dawn of the great age of embodied intelligence.
