We Are Teaching Robots How to Move. What Are We Teaching Ourselves?

Today's robots are not people, but the way we test, damage, repair and discard human-shaped machines may be teaching us habits long before the law catches up.

A humanoid robot sprinted down a track in Beijing, crossed the finish line and kept going. It struck the padded barrier hard enough to throw sparks. Staff moved in with fire extinguishers, and damaged machines were carried away on stretchers. At a separate robot fighting tournament in Shenzhen, one machine kicked the head from another, and the damaged robot continued trying to fight with the systems left in its torso. Organizers described that event as both a test of balance and durability and a form of entertainment.

The engineering was remarkable. So was the uneasy feeling that followed it. It looked like an ugly preview of how some people might treat something meant to help them.

That reaction does not require anyone to pretend that today's robots are people. There is no accepted evidence that the machines in those arenas are conscious, frightened or capable of suffering. The harder question is about us: while we teach robots to run, jump, recover and work beside us, what habits are we teaching ourselves?

The Achievement Inside the Discomfort

The second World Humanoid Robot Games, held August 22 through 26 at Beijing's National Speed Skating Oval, put the progress on full display. Organizers reported 666 teams, 2,056 robots and 1,301 competition sessions across 51 events. Robots ran, played football, lifted weights, danced and fought. They also worked through emergency-response, hotel-service, household and industrial tasks.

The record numbers sound like science fiction. A Tiangong Ultra robot completed a 100-meter event in 8.64 seconds. Other machines reached a standing high jump of 3.4 meters and completed a 1,500-meter event in 2 minutes, 21.64 seconds. Those performances took place under robot-specific rules and conditions, so they should not be treated as direct victories over human records. They are still extraordinary demonstrations of motors, batteries, materials, balance and control working together.

The more important progress may have happened away from the fastest lanes. Most events required autonomous operation. A tennis robot had to judge a moving ball and recover after a fall. In an industrial challenge, a robot installed 18 screws in five minutes without a person guiding every motion. The games also tested navigation, logistics and emergency response — the kinds of abilities a useful machine will need when a factory floor, a damaged building or a home refuses to behave like a clean laboratory.

Falling is part of learning. Broken parts can reveal weak joints, poor balance, bad software decisions and safety problems. Engineers cannot make dependable machines by protecting every prototype from a hard test. The discomfort begins when failure stops being information and becomes the show.

Testing is necessary. Spectacle is a choice. Space companies sometimes destroy rockets while finding the edge of a design. Cars are crashed into barriers so engineers can learn how to protect the people inside them. Helmets, bridges, batteries and aircraft components are all pushed until something fails. That is not waste for its own sake when the test has a clear purpose, the results are studied and the next design becomes safer.

Humanoid robots add a complication. They are built in our shape because our buildings, tools and daily routines were built around human bodies. A machine with two arms can use a cart, a wrench or a hospital doorway without forcing the world to be redesigned around it. The same familiar shape also makes a punch, a kick or a body dragged from an arena look different from a shattered engine part. A rocket does not resemble a future helper. A humanoid robot does.

That does not make the robot a person, but it changes what the audience is being invited to enjoy. There is a difference between asking, "What failed, and how do we repair it?" and asking, "How much damage can we make entertaining?" The first question builds a safer machine. The second can build an audience accustomed to domination and disposal.

Why People Feel Something Even When the Robot May Not

People routinely respond to machines as social objects. We name cars, apologize to voice assistants and feel a jolt when a human-shaped robot falls. Designers amplify that response through faces, voices, gestures and body language because those cues make interaction easier to understand.

A 2026 study in Frontiers in Human Neuroscience showed participants human and robot faces receiving painful or neutral touch. People rated the human faces as experiencing more pain, but the researchers did not find a significant difference between human and robot conditions in the prefrontal brain activity they measured. The sample was small and the authors called for more research. The result does not prove robots feel pain, or even that people respond identically to humans and machines. It does show why a person's empathetic reaction to a robot should not be dismissed as foolish.

A broader 2026 review of empathy and embodied robots in Current Directions in Psychological Science reached an equally careful conclusion. People can feel pity, concern or anger when they see a robot mistreated — sometimes because the act violates their sense of relational fairness even when they do not believe the robot has a mind. At the same time, designers can exploit that empathy to manipulate users. Humanlike machines create moral and psychological questions in both directions.

Science has not established that watching someone abuse a robot turns the viewer into a crueler person. We should say that plainly. But society does not need to wait for a laboratory to prove every consequence before deciding what kind of conduct it wants to normalize. Manners, workplace culture and professional ethics are often built before a law or controlled study arrives.

Repair Is Part of the Relationship

There is also a practical reason to reject the disposable-machine mindset. The world generated 62 million tonnes of electronic waste in 2022, according to the International Telecommunication Union and the United Nations Institute for Training and Research. Only 22.3 percent was documented as formally collected and recycled in an environmentally sound way. The pile is growing almost five times faster than documented recycling.

Humanoid robots contain batteries, motors, sensors, processors, wiring and valuable materials. If they become common in warehouses, hospitals, disaster zones and homes, every broken joint cannot become an excuse to discard an entire machine. The better future is modular: a damaged arm can be replaced, a battery can be serviced, software support lasts, repair instructions are available and working components are recovered for another machine.

Imagine the opposite — a mound of robot arms, legs and sensors, with other machines picking through the wreckage for something that still works. That picture is not evidence that the parts suffered. It is evidence that we failed to plan.

Repairability is not sentimental. It lowers cost, reduces waste, keeps essential equipment working and respects the labor and materials already invested in it. It also changes the language around a failure. The machine is not trash. It is equipment that needs care.

Compassion Does Not Require Pretending

It is too early to write a legal code based on a robot's feelings. It is not too early to set human standards for the people who design, own, test and use them. Those standards can be simple: push prototypes hard when safety and knowledge require it; explain what a destructive test is meant to teach; recover and repair damaged machines when possible; design bodies and software for maintenance instead of planned abandonment; do not confuse humiliation with useful evaluation; do not let a crowd's appetite for a harder hit become the purpose of the technology.

Most important, keep the intended relationship in view. These machines are being developed to enter dangerous buildings, carry supplies, assist workers, help people with limited mobility and perform repetitive jobs that wear human bodies down. At the Beijing games, emergency response and practical service tasks were not sideshows. They were glimpses of the real reason the athletic achievements matter.

A robot that can regain its balance after a fall may one day cross unstable ground to reach a trapped person. A hand precise enough to install 18 screws may maintain equipment where a human cannot safely stand. A body strong enough to lift weight can carry medicine, tools or debris. The goal is not to create a better victim for an arena. It is to create a more reliable partner in places where people need help.

We Are Choosing the Habit Now

People sometimes hear the word compassion and assume it grants a machine a soul. It does not. Compassion can be a discipline practiced by the person who has the power. We can handle an animal gently without believing it thinks like us. We can preserve an old tool because of the work it has done. We can repair a machine because waste is foolish and because care is the kind of habit we want to carry into every relationship.

The robots will keep improving. They will run faster, land cleaner, work longer and recover from mistakes that stop today's machines cold. Some will look less human, some more. They are already appearing in factories and will move into more public and personal spaces. The culture surrounding them is being built at the same time as the hardware.

That is why this conversation is not too early. Once a habit becomes an industry, it is difficult to remove. We still have time to decide that rigorous testing should produce knowledge, competition should reward useful capability and broken machines should lead to repair rather than a bigger spectacle.

The robot may not feel the kick. We do. That feeling may be a warning worth listening to. Robots are being built to help humanity. Let us make sure our treatment of them does not make humanity worse.