Daily Technology
·30/12/2025
In 2025, advancements in robotics have led to a new wave of humanoid, utility, and experimental machines. This review compares several standout robots from recent events, focusing on their design, performance indices, and technological impact within the broader science and technology landscape.
The Robbyant R1, featured at the IFA 2025 tech show, utilizes a hybrid design—a wheeled base paired with a humanoid upper body. Its configuration enables operational stability while maintaining human-like appendages for a range of tasks. Intended for roles such as carer, nurse, or tour guide, the R1 demonstrates versatile application potential compared to traditional bipedal robots, which often sacrifice stability for increased anthropomorphism.
Contrastingly, the Tiangong robot aims for full bipedal mobility, mirroring human locomotion. This ambitious approach introduces notable challenges: at the World Humanoid Robot Games in Beijing, Tiangong participated in sports events but faced balance-related setbacks, such as tripping during a 100-meter race. The prevalence of falls among bipedal participants underlines ongoing performance limitations in fully two-legged robots.
Performance metrics vary widely among robots. The R1’s demonstration in a kitchen context highlighted its control and dexterity, but its working pace remained slow compared to human equivalents. During the Beijing E-Town Humanoid Robot Half Marathon, only six of twenty-one robotic entrants completed the distance. The leading Tiangong Ultra achieved a time of 2 hours and 40 minutes with multiple battery changes, underscoring both advancements in battery optimization and the energy constraints that still differentiate robots from humans in endurance tasks.
At the same Games, Unitree G1 robots competed in kickboxing events. The match illustrated mechanical agility but revealed limitations in both striking force and balance under dynamic conditions—often yielding gentle pushes rather than powerful impacts, and requiring frequent recoveries from falls. These results, documented through public competitions, highlight present boundaries for robot locomotion and coordination compared to human athletes.
Robot jockeys used in Qatar camel racing represent a unique direction: a non-anthropomorphic but specialized design. Over the years, these devices have evolved, but their function remains focused—employing remote controls to encourage camel speed. Their continued refinement addresses ethical concerns over previous human practices and demonstrates a successful, targeted use case where humanoid features are unnecessary.
Another innovative example is the cyborg tadpole developed at Harvard University, showcasing integration of soft, stretchable electronics within a biological embryo. By embedding ultra-thin conductors in the neural plate of frog embryos, researchers can non-invasively monitor developmental brain activity, representing a leap in soft bio-electronics and cross-disciplinary research.
2025’s robotics landscape reveals a spectrum of progress: humanoid robots are increasingly capable but face technical hurdles in balance and coordination. Specialized robots bypass anthropomorphic complexity for targeted performance, while hybrid and experimental devices push the boundaries of integration and utility. Comparative public testing at technology shows and sporting events continues to provide valuable benchmarks for ongoing industry development.









