Could this be the time we say goodbye to robotic awkwardness and hello to seamless motion? This article highlights the groundbreaking concept of whole-body control, a coordinated robotic motion technique that resembles natural movement. Imagine a robot smoothly navigating its environment, performing tasks with grace and precision. This innovative approach allows for improved efficiency and greater versatility in real-world settings.
Fast localization and picking of multiple objects with Photoneo's Locator Studio for 3D picking in collision-free environments, PhoXi 3D Scanner, and a universal gripper.
This comprehensive article dives deep into the world of robotics, exploring the history, types, engineering components, applications, and future trends of robots, offering readers an in-depth understanding of how these remarkable machines work and shape our lives.
The hospitality industry can leverage the gender characteristics of service robots to influence customers' decisions, according to new research from a team in the Penn State School of Hospitality Management.
Service robots have evolved from simple automated machines to intelligent adaptive systems that can navigate unpredictable environments and interact with humans.
From hospital wards to crop fields, from microscopic swarms to biohybrid machines powered by fungi, robotics research at Cornell spans an astonishing range of scale, application and ambition.
An AI control system co-developed by SMART researchers enables soft robotic arms to learn a broad set of motions once and adapt instantly to changing conditions without retraining.
A new glove with more than three dozen actuators across all five fingers and the palm, developed by Cornell researchers, aims to reduce swelling for people suffering from edema.
AI-powered artificial muscles made from pliable materials are reshaping recovery, from stroke rehabilitation to prosthetic design. These machines help people regain motion, strength, and confidence.
Could this be the time we say goodbye to robotic awkwardness and hello to seamless motion? This article highlights the groundbreaking concept of whole-body control, a coordinated robotic motion technique that resembles natural movement. Imagine a robot smoothly navigating its environment, performing tasks with grace and precision. This innovative approach allows for improved efficiency and greater versatility in real-world settings.
Fast localization and picking of multiple objects with Photoneo's Locator Studio for 3D picking in collision-free environments, PhoXi 3D Scanner, and a universal gripper.
Sensors are used in robotics to calculate the condition and environment of robots, using functions similar to the human sensory organs. A variety of sensors are required by different robots to navigate their environment while performing tasks. This article covers the types of sensors in robotics.
This in-depth guide will delve into the fundamentals of I2C and SPI communication protocols, including their working principles, comparative advantages, system configurations, and practical applications in embedded systems and IoT devices.
Combining biology and robotics, scientists at EPFL have built a robotic microsurgery platform that can perform high-precision, micrometer-resolution dissections to advance our understanding of how the vertebrate body forms during embryonic development.
In this episode, we talk about about how an ant inspired robotics platform could be the future of swarm robotics due to its simple, affordable, flexible, and scalable nature.
Ever wondered how robotic arms achieve precise movement in manufacturing, healthcare, or logistics? It’s all about smart design — from sturdy components and kinematics to advanced control systems. Discover how these elements work together to deliver accuracy, flexibility, and real-world efficiency.
Robotic joints, which are sometimes known as axes, are the moveable parts of a robot that cause relative motion between adjacent links. These links refer to the rigid components that connect the joints to ensure their proper and straightforward operation.
EPFL researchers have developed a method that allows a flapping-wing robot to land autonomously on a horizontal perch using a claw-like mechanism. The innovation could significantly expand the scope of robot-assisted tasks.