Humanoid robots are transitioning from research laboratories and factories into public spaces, appearing at national celebrations and entertainment events across Asia. This shift reflects growing confidence in bipedal robot technology and marks a turning point in how societies are beginning to integrate advanced robotics into everyday life. Two humanoid robots, A1 and D1, are scheduled to appear at Malaysia's National Day celebrations on August 30 and 31, while China is hosting robot carnivals and half-marathons showcasing similar machines to the public.

Why Are Humanoid Robots Suddenly Appearing at Public Events?

The appearance of humanoid robots at major public events represents more than just a technological showcase. It signals that developers believe these machines have matured enough to operate safely and reliably in environments designed for humans, rather than remaining confined to controlled industrial settings. According to Honor, the technology company behind the A1 and D1 robots, this reflects a fundamental shift in robotics development.

"Robot development is no longer focused solely on repetitive tasks in the industrial sector, but is also moving towards systems capable of operating in spaces designed for humans," Honor stated.

Honor, Technology Company

The participation of the D1 robot in a running event is particularly significant. D1 previously competed in the Beijing E-Town Humanoid Robot Half-Marathon in April and won in its category, demonstrating that bipedal robots can now handle dynamic, unpredictable environments like outdoor running courses.

What Makes Bipedal Robots So Difficult to Build?

Unlike wheeled robots that operate on stable surfaces, bipedal humanoid robots face a unique engineering challenge: they must continuously maintain balance while walking or running, control the movement of multiple limbs simultaneously, and adapt their steps to changing terrain. This complexity requires a sophisticated combination of hardware and software working in real time.

The technical systems enabling bipedal locomotion include sensors that interpret the robot's surroundings, motion-control systems that process sensory data, mechanical actuators that move the limbs, and artificial intelligence algorithms that coordinate everything. Maintaining balance remains one of the most difficult problems to solve, since even small shifts in the robot's center of gravity can cause it to lose stability.

How Are Chinese Companies Dominating the Humanoid Robot Market?

China has emerged as the global leader in humanoid robot manufacturing and deployment. Nearly 90% of the more than 13,000 two-armed, two-legged robots delivered globally last year were made in China, according to reporting from MIT Technology Review. This dominance reflects both government support and significant private investment in embodied AI, a concept that embeds artificial intelligence into physical systems.

The Chinese government included embodied AI as a key facet of its latest five-year plan, signaling long-term commitment to the sector. Companies are now showcasing their latest humanoid models at public events, from robot carnivals in Shanghai to half-marathons in Beijing. These public demonstrations serve an important purpose: they help build public familiarity with the technology and demonstrate practical capabilities to potential customers.

Steps to Understanding Humanoid Robot Capabilities

• Balance and Locomotion: Bipedal robots must continuously adjust their center of gravity and limb positions to remain upright, a task that requires real-time sensor feedback and AI-driven control systems working in concert.
• Environmental Adaptation: Unlike robots designed for fixed industrial environments, humanoids must interpret and respond to unpredictable surfaces, obstacles, and conditions, such as running on outdoor terrain or navigating crowded public spaces.
• Human-Compatible Design: Because much of human infrastructure is already designed around human dimensions and physical capabilities, humanoid robots can theoretically use stairs, doorways, tools, and other spaces without modification.

The practical advantages of the humanoid form factor are significant. Since buildings, vehicles, and tools are already designed for human bodies, a robot shaped like a human can operate in these spaces without requiring expensive infrastructure changes. This is one reason why companies continue investing in bipedal designs despite the engineering challenges.

What Challenges Still Remain for Humanoid Robots?

Despite recent progress, humanoid robots still face substantial obstacles to widespread adoption. High prices, short battery life, and safety concerns related to their weight and balance requirements have limited their appeal in many markets. Additionally, many roboticists remain skeptical that a human form is the optimal shape for a robot to take, arguing that specialized designs might be more efficient for specific tasks.

Public perception is also evolving. The robot carnivals and public events now happening across China and Malaysia serve a dual purpose: they demonstrate technological progress while also helping the public become comfortable with robots in shared spaces. At a Shanghai robot carnival, families watched humanoids perform martial arts, fold laundry, and make coffee, while children interacted with robotic dogs and quadrupedal robots climbing stairs.

For Malaysia and other countries engaging with this technology, the broader question remains how to deploy humanoid robots responsibly. The goal is to improve safety, productivity, and quality of life while ensuring that humans maintain control over these systems and their deployment.