Copley Controls, an ISO 9001:2008 company and part of Analogic Corporation, delivers high-performance motion solutions to a wide range of industries including semiconductor, life sciences, test, automated assembly, and COTS military.
RSF defines a common language for robot service capability, lifecycle operations, certification pathways, and service-provider networks.
On July 17, 2026, the World Artificial Intelligence Conference (WAIC) commenced in Shanghai, focusing on the theme 'Intelligent Partners, Co-Creating the Future.' Dahuang Technology presented its AI multimodal capabilities, showcasing a comprehensive system that includes understanding, connecting, interacting, and controlling complex data. The demonstration highlighted the company's transition from video-centric solutions to a broader AI multimodal framework. Dahuang Technology's Sports AI system, based on the BlackEye multimodal spatial model, was a key feature, providing real-time analysis of sports events. This system can automatically label players, track movements, and generate slow-motion replays, demonstrating the AI's ability to comprehend complex video scenarios. The technology has already been validated in high-profile events like the 2026 World Cup and the Paris Olympics. The company also introduced its AI multimodal perception compression technology, achieving over tenfold compression efficiency while maintaining video quality. This capability is crucial for applications in drone inspections, remote communications, and robotic operations, addressing the growing demands for bandwidth and data transmission efficiency in various sectors. No further timeline was disclosed at the time of publication.
AI Multimodal Technology Video AI Data Compression Sports AI Human-AI InteractionRecent trends in the robotics industry indicate a shift from mere mobility to operational intelligence, particularly in humanoid robots. Companies are now focusing on practical applications such as tool handling and assembly, highlighting the importance of force sensing technology. As robots engage in physical tasks, understanding the force exerted becomes crucial for effective operation. This transition underscores the growing significance of six-dimensional force sensors, which are evolving from optional components in industrial robots to essential infrastructure for next-generation intelligent robots. The recent funding rounds exceeding 100 million yuan reflect a broader interest from both traditional investors and state-owned enterprises, signaling a pivotal moment in the industry's development. Looking ahead, the demand for comprehensive sensing, control, and manufacturing infrastructure will likely increase as the humanoid robotics sector matures. The complexity of enabling robots to perform sustained tasks, such as assembly and material handling, will challenge developers to innovate beyond flashy capabilities and focus on the intricate details that drive commercialization.
Humanoid Robots Force Sensing Technology Industrial Automation Robotics InnovationRobbyant, a company specializing in embodied AI under Ant Group, has unveiled the upgraded LingBot-VLA 2.0 model. This next-generation vision-language-action model enhances morphological generalization, degrees of freedom support, and deployment efficiency, addressing a critical gap in the embodied AI industry. The significance of LingBot-VLA 2.0 lies in its extensive pre-training on 60,000 hours of real-world data, which includes interactions from 20 different robot morphologies. This upgrade allows for improved whole-body control and dual-arm manipulation, achieving leading scores on benchmarks, thus demonstrating its effectiveness in industrial-scale deployment. Looking ahead, the introduction of a version optimized for efficient post-training and a threefold increase in inference efficiency positions LingBot-VLA 2.0 as a strong contender for real-time commercial applications. No further timeline was disclosed at the time of publication.
Computing Robot simulation artificial intelligence dual-arm robots embodied ai humanoid robotsWeRide has introduced WITT, a groundbreaking physical AI foundation model designed to enhance multimodal scene understanding. This model utilizes minimal physical fact units, which are crucial for applications in autonomous driving and robotics. The launch of WITT is significant as it aims to streamline the integration of various data types, improving the efficiency and effectiveness of AI systems in interpreting complex environments. This advancement could lead to more reliable autonomous systems that can better navigate real-world scenarios. Looking ahead, the implications of WITT's capabilities in the fields of autonomous driving and robotics will be closely monitored. No further timeline was disclosed at the time of publication.
TechnologyRobotic systems are increasingly capable of perceiving, choosing, and altering their behavior autonomously, without human intervention. This shift towards autonomy enhances adaptability in various environments such as warehouses and labs, but it also raises significant concerns regarding safety and control. Traditional safety measures, including physical barriers and emergency buttons, may no longer suffice as robots undertake more complex tasks. The implications of this autonomy are profound, as organizations must now assess the quality of decisions made by autonomous systems, the reliability of their software, and the protocols for monitoring their actions. Unlike conventional robots that follow fixed commands, autonomous robots can evaluate multiple scenarios and make decisions based on real-time conditions, which complicates safety protocols. Ensuring that these systems operate safely requires a reevaluation of existing safety standards that focus on speed and force. Looking ahead, it is crucial for operators to have adequate information to respond effectively to unexpected robot behavior. Autonomous robots utilize various sensors to interpret their environment, but factors like dust and poor lighting can affect input quality. Organizations should prioritize the definition and testing of triggers for human intervention to maintain a balance between autonomy and safety. No further timeline was disclosed at the time of publication.
AI agents Infrastructure AI agent autonomy ai agents ai safety automationThe development of robotics begins long before physical assembly, relying heavily on simulations to validate designs and refine algorithms. These simulations demand significant computational resources, making system benchmarking crucial to identify hardware limitations early in the process. By measuring workstation performance under demanding workloads, engineers can establish a performance baseline that aids in spotting potential bottlenecks. Understanding how different hardware components affect simulation performance is essential for robotics development. Whether using macOS, Windows, or Linux, benchmarking helps determine if slowdowns are due to software changes or hardware limitations. Key components such as the processor, graphics card, memory, and storage play varying roles in performance, and the weakest link can dictate the overall experience. As robotics projects grow in complexity, the need for robust hardware becomes increasingly important. Engineers should focus on comprehensive benchmarking to ensure their systems can handle the demands of their simulations. No further timeline was disclosed at the time of publication.
Components Robot simulation ABB RobotStudio automation cpu delmiaKAIST and Korea University researchers have developed the KAIST HOUND robot, achieving a peak speed of 6m/s while autonomously navigating complex terrains. This advancement showcases the robot's ability to seamlessly switch gaits, such as trotting and bounding, based on environmental conditions without external support. The significance of this achievement lies in the innovative APT-RL framework, which utilizes a simplified 2D dynamics model to generate extensive motion data. This approach allows the robot to learn and adapt its movements in real-world 3D environments, overcoming traditional limitations of motion capture and reinforcement learning strategies. Looking ahead, the research team has demonstrated the robot's capability to handle various scenarios, including jumping and maintaining balance under challenging conditions. Future developments may focus on enhancing the perception system to support high-speed operations, as the current sensing technology has limitations in effective range.
Quadrupedal Robots Robotics Research Reinforcement Learning AI Autonomous SystemsOn July 16, the inaugural match of the Universal Robot Combat League (URKL) took place at the Nanshan Sports Center in Shenzhen, featuring 32 teams from around the world competing with the T800 humanoid robot. The championship belt, weighing 10 kilograms and valued at approximately 10 million yuan, is awarded to the winning team. This event is significant as it showcases the advanced capabilities of humanoid robots in dynamic combat scenarios, where they must accurately perceive, predict, and respond to opponents in real-time. The competition serves as a testing ground for the robots' structural integrity and algorithm efficiency, allowing developers to refine their designs and reduce potential failure rates in commercial applications. Looking ahead, the data collected from these matches will enhance AI decision-making capabilities, pushing humanoid robots beyond static demonstrations to dynamic autonomous responses. As the competition concludes, it will contribute to the evolution of foundational technologies and commercial frameworks, positioning Guangdong as a leading hub in the global robotics industry.
Humanoid Robots Robotics Competitions AI Technology Robotics DevelopmentOn July 17, Extreme Intelligence unveiled Gravity 4D WAM, the first module of its embodied intelligence framework, at the 2026 World Artificial Intelligence Conference (WAIC). This launch addresses a critical issue in current visual language models: the discrepancy between visually plausible predictions and physical reality. Gravity 4D aims to transition world models from merely predicting visuals to accurately anticipating three-dimensional physical evolution. The significance of Gravity 4D lies in its ability to enhance robotic operations by ensuring that actions are based on physical realities rather than just visual appearances. The framework introduces a 4D latent model that allows the World Action Model (WAM) to learn essential information about RGB appearance, spatial structure, and motion dynamics. This paradigm shift is crucial for improving the reliability of robotic tasks, as it ensures that robots can effectively grasp objects and navigate environments based on true physical interactions. Looking ahead, Gravity 4D's approach could redefine how robots interact with their environments, moving from visual-based predictions to a deeper understanding of physical laws. The framework's dual-brain architecture and integration of various sensory inputs will be further detailed in upcoming technology releases. No further timeline was disclosed at the time of publication.
Robotics AI Machine Learning AutomationGravity has introduced a unified embodied intelligence framework designed for long-range and complex robotic tasks. This framework, built on a Mixture-of-Transformers (MoT) architecture, integrates visual language models (VLM) for instruction and scene understanding, task reasoning, and world modeling to predict future states and evaluate sub-goals. It also incorporates tactile and force feedback, prior knowledge, and multi-modal supervision to enhance task execution and adaptability. The significance of Gravity's framework lies in its ability to improve the success rate of complex operations that require precise contact and autonomous error correction. By combining AR Transformer and Diffusion Transformer, Gravity enables robots to simulate multiple strategies and assess risks before executing tasks. This advancement shifts robotic capabilities from reactive responses to proactive planning, making it suitable for applications in precision assembly, complex sorting, and flexible manufacturing. Looking ahead, Gravity aims to further develop its complete system, having already implemented components like Gravity VLA and Gravity 4D WAM. The focus will be on enhancing the framework's ability to learn from real-world experiences, thereby creating a continuous feedback loop that improves operational efficiency and adaptability in various industrial contexts. No further timeline was disclosed at the time of publication.
Robotic Frameworks Embodied Intelligence Task Automation Machine Learning Robotics
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