Foxtech’s P1 bipedal robot, powered by advanced reinforcement learning, has achieved a major milestone by successfully navigating rugged terrains in Tanglangshan Park, Shenzhen. In a zero-sample, fully open testing environment with no prior data on forest conditions, P1 demonstrated remarkable adaptability, control, and stability. This achievement highlights Foxtech’s robust reinforcement learning framework, which integrates Real2Sim2Real closed-loop systems, modular neural network design, and iterative pre-training algorithms. Together, these innovations enable P1 to overcome complex, real-world obstacles autonomously. Foxtech’s success with P1 reflects its dedication to developing cutting-edge robotics capable of adapting to and thriving in dynamic environments.

Kicking off 2025, humanoid robots continue to dominate headlines, from a dazzling presence at CES 2025 to shaking up capital markets. Industry giants are entering the fray, while companies race to announce mass production plans. This revolutionary tool is rapidly advancing, with its transformative potential drawing increasing attention. The humanoid robotics industry is on the brink of reshaping technology and society, underscoring its growing importance and imminent impact across various sectors.

Humanoid robots are complex systems that integrate mechanical, electronic, and control technologies, with their mobility heavily dependent on advancements in motor technology. As the "power heart" of a robot, motors directly influence flexibility, precision, and load capacity. This article explores the core motor types used in humanoid robots and their applications.

Since the start of the year, the global competition in humanoid robotics has intensified. Videos showcasing robots dancing, flipping, and running have flooded social media, captivating audiences worldwide. While these feats highlight impressive technological breakthroughs, the true value of humanoid robots lies beyond entertainment.

In recent years, the field of humanoid robotics has undergone rapid transformation, driven by advancements in artificial intelligence, materials science, and mechanical engineering. No longer confined to laboratories or exhibitions, humanoid robots are steadily moving toward real-world applications across logistics, manufacturing, healthcare, and service industries. Among the many technological breakthroughs fueling this shift, one stands out as especially strategic and challenging: the development of dexterous robotic hands.

Dexterous robotic hands are one of the most critical components in humanoid robots. Human hands feature 23 degrees of freedom (DOF), weigh only about 1/150 of total body mass, and contribute to 54% of the body’s motion capabilities. Similarly, robotic hands serve as key end-effectors for executing tasks and interacting with the real world.

If we compare a humanoid robot to an athlete, joint motors are its powerful and dynamic “muscle system.” While AI algorithms and advanced sensors often get the spotlight, it is the actuators—the joint motors embedded in each limb—that truly bring robots to life with fluid and purposeful movement.
Over the past decade, AI and perception technologies have advanced rapidly. However, without robust, responsive, and flexible actuators, humanoid robots cannot transition from lab demonstrations to real-world applications. Today, breakthroughs in joint motor technology are helping robots cross the final threshold from "mechanical motion" to "biological agility."