Frontline | More than just a robotics competition, RoboMaster is becoming a training ground for engineers
Text | Zhang Ziyi
Editor | Yuan Silai
On August 9, the national final of the RoboMaster 2026 Super Competition concluded in Shenzhen. The TDT team from Northeastern University won the championship, the Taurus team from South China Agricultural University took the runner-up title, and the Origin team from East China University of Science and Technology and the SuperPower team from Tongji University claimed the third and fourth places respectively.
The RoboMaster Super Competition, initiated by DJI, targets young engineers from universities worldwide. Participating teams need to independently develop the mechanical structure, embedded system, circuit construction, control and vision algorithms of their robots, and complete on-site matches through the collaboration of multi-type robots, which is essentially a comprehensive test of full-stack engineering capabilities.
A total of 44 university teams participated in this year's national final. The robot collaboration, real-time data interaction and constantly changing on-site situation make the competition not only test technical R&D capabilities, but also system stability and on-the-spot strategies. In the end, Northeastern University won the championship with stable multi-robot collaboration and strategy execution; South China Agricultural University delivered outstanding performance in the design of its engineering robot.
The design of robots on the field is also increasingly approaching real industrial scenarios and problems.
For example, infantry robots need to move stably in complex terrain and narrow spaces, and such capabilities can be extended to industrial inspection scenarios; engineering robots rely on multi-degree-of-freedom robotic arms to complete grasping and assembly, which can be applied to scenarios such as warehousing and retail; sentry robots emphasize autonomous perception and unattended operation, and relevant technologies can be used for inspection in factory areas, parks and low-clearance spaces.
The engineering robot of South China Agricultural University this year adopts a dual 7-axis humanoid robotic arm with strong flexible grasping capability; the 4-axis gimbal obstacle-surmounting sentry robot from Northeastern University demonstrates excellent mobility and perception capability in low, restricted spaces.
Similar technology transfer also includes dynamic tracking, inspection and light-load delivery of aerial robots, visual aiming and long-range precise projection of hero robots, as well as the capabilities of radar systems in multi-target perception, positioning and data fusion. The competition itself is not directly equivalent to industrial products, but it provides students with a complex system environment close to real engineering development.
Compared with the competition results, the more long-term value of RoboMaster lies in talent cultivation.
Participants often need to complete the full engineering process from requirement definition, design, manufacturing to debugging and iteration on campus. According to the event data, the employment rate of participating students is nearly 100%. More than a thousand participants have joined DJI after graduation, and many technology enterprises also take RoboMaster experience as a reference in recruitment; the number of patent applications and open-source technical reports submitted by participating team members has exceeded 1,000 in total.
RoboMaster has been held for 11 years up to now. More than just a robot competition, it has gradually played the role of connecting engineering education in universities with industrial practice: students need to actually build a fully functional robot, and make its machinery, algorithms, electronic control and software work collaboratively under high-pressure competition scenarios.
For the rapidly developing robotics industry at present, this kind of complete engineering training is perhaps more scarce than the achievement of a single technical item.