Artificial intelligence is increasingly evolving from purely software-based applications to systems that actively interact with the real world—systems that are encompassed by a new term: Physical AI. As explained by IBM , Physical AI refers to certain AI systems that enable machines and robots to perceive their environment, make decisions, and act independently. Physical AI is becoming increasingly important, particularly in logistics: Faced with rising delivery volumes, complex supply chains, and a growing shortage of skilled workers, companies are increasingly turning to intelligent robots and automated warehouse solutions. From an interview with Mei-Jung Chen (Managing Director and Partner Taipei, Boston Consulting Group) from May 2026 makes it clear that Physical AI is fundamentally transforming industrial automation by combining artificial intelligence, sensor technology, and automation. Physical AI can adapt to existing and dynamic environments designed for humans, thereby operating more flexibly and efficiently than traditional automation systems. What is Physical AI?
Physical AI, also known as “embodied AI,” can not only analyze data but also act directly in the physical world through sensors and actuators. Unlike traditional AI systems, which, for example, generate text or recognize patterns in data, Physical AI can independently interact with its environment.
The combination of sensors, cameras, actuators, machine learning, and modern computing power enables Physical AI systems to perceive their environment in real time and respond dynamically to changes. As a result, machines are increasingly able to take on tasks that were previously performed exclusively by humans. Physical AI is particularly well-suited for use in repetitive and physically demanding tasks.
How does Physical AI work?
Physical AI combines digital intelligence with physical devices. The system collects data via sensors, cameras, or other measuring instruments. The AI then analyzes this information, assesses the situation, and makes decisions. These decisions are translated into concrete actions via motors, robotic arms, or other actuators.
For example, an autonomous vehicle detects other road users, analyzes the traffic situation, and autonomously adjusts its steering, acceleration, and braking.