Robotics

Coordinating large groups of robots usually requires complex software, wireless communication, and centralized control systems. But these approaches can become fragile in unpredictable environments...

Robots have become increasingly capable in controlled environments, but they still struggle to replicate the adaptability and precision seen in animals. Biological movement relies...

Coordinating large numbers of robots to perform complex tasks remains a major challenge. Traditional systems often rely on centralized control, detailed planning, and constant...

Modern military operations are increasingly defined by speed, flexibility, and reduced risk to personnel. At the same time, forces operating in complex environments, such...

Industrial environments such as chemical facilities, refineries, and large storage sites often involve hazardous conditions that put human workers at risk. Tasks like welding,...

Designing materials that can actively change shape or function on demand remains a major challenge. Most artificial actuators rely on motors, wiring, or external...

Robots are increasingly expected to operate in confined and complex environments, from industrial machinery to medical procedures inside the human body. Traditional robotic arms,...

Electric motors power everything from household appliances to industrial systems. Most rely on magnetic fields generated by electric current to create rotation. While electrostatic...

Soft robots are often designed for a single task. Once their structure and internal wiring are set, their range of motion is fixed, limiting...

Modern ground forces are under increasing pressure to operate with less exposure while maintaining mobility and firepower. Carrying heavy equipment, securing movement routes, and...

Engineers have long sought materials that can change their mechanical behavior depending on the situation. In robotics and protective equipment, the challenge is clear:...

Soft robots are often seen as a promising solution for operating in delicate or constrained environments, but they come with a key limitation: movement....

Written by Or Shalom The Milipol TechX Summit (MTX) 2026, which opened on April 28th, 2026, at the Sands Expo Convention Center in Singapore, marks...

Robots are often limited by the very components that power them. Traditional electric motors provide strength and precision, but they also add weight, rigidity,...

Autonomous underwater vehicles (AUVs) operate in an environment that is constantly shifting. Sudden currents, turbulence and pressure changes can destabilize rigid wings and control...

Robots designed to detect and track chemical sources, such as gas leaks, explosives, or hazardous materials, typically rely on multiple sensors working in perfect...

Robotic systems designed for remote or extreme environments face a consistent limitation: power. Movement alone can consume a significant portion of a robot’s energy,...

Naval forces have long faced a persistent challenge: maintenance delays that keep critical vessels out of operation for extended periods. Inspections of hulls, decks,...

For mobile robots operating in the real world, knowing their exact position is not optional. Autonomous navigation depends on continuous, accurate localization. Yet satellite-based...

As humanoid robots become more advanced, one of the key challenges is making their interactions feel natural. Accurately recognizing faces, tracking expressions and reproducing...

Autonomous robots still struggle with a basic problem that animals solve effortlessly: how to keep moving when conditions suddenly change. Uneven terrain, loss of...

As robots take on more complex roles in industrial environments, one challenge remains constant: ensuring safe, seamless interaction with human workers. Heavy-duty robotic arms...