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As robotic arms become increasingly important in embodied AI, robot learning, industrial automation, and research education, one key challenge remains: how can humans control robots in a more natural, precise, and efficient way?
Traditional control methods often rely on joysticks, keyboards, teach pendants, or complex remote-control interfaces. These tools can work for basic movements, but they may not fully capture the flexibility, coordination, and intention behind human arm motion.
The ExoArm-7 Wearable Exoskeleton Teleoperation Arm is designed to solve this challenge.
Built for robotic arm teleoperation, motion data acquisition, and VLA-related applications, ExoArm-7 allows users to control robotic arms through natural human arm movements. With a 14DOF dual-arm structure, ultra-low latency response, high-precision encoders, and OpenArm compatibility, it provides a more intuitive way to connect human motion with robotic execution.

The construction of beautiful countryside is one of the important contents of the rural revitalization strategy, an important measure to promote the construction of ecological civilization and an effective way to realize the integrated development of urban and rural areas. The focus of beautiful village construction is rural planning, rural construction, ecological protection, and economic development. Among them, the main task of rural planning is to accurately obtain information on the current situation of villages, and provide data support for village planning and design, engineering quantity calculation, and construction budget. Traditionally, data on the current status of rural areas are obtained mainly through on-site surveys, engineering surveys, etc. These methods are costly and take a long time, and cannot meet the needs of large-scale data collection on rural current status, and the collected data are not intuitive at the same time.
With the continuous development of new technologies and new products, although UAV tilt technology can be used to quickly and efficiently obtain rural current data information, single tilt photography technology is still unable to obtain housing occluded area information, and laser scanning must be relied on to make up for point cloud holes. This program takes a village and town in the southwest mountainous area as a pilot and adopts the air-ground integration solution—Pegasus D2000S UAV system equipped with an oblique camera module D-OP3000 combined with SLAM100 handheld lidar scanner to obtain current data information of villages and towns to help the construction of beautiful villages.

Great robotic products are never built by hardware alone. Behind every intelligent machine is a complete engineering ecosystem that combines research, software, manufacturing, testing, and continuous innovation.
From precision robotic components to complete embodied AI platforms, every stage of development is supported by an experienced multidisciplinary engineering team focused on turning advanced robotics technologies into reliable real-world solutions.

Karst caves are fascinating natural formations that have captivated explorers and scientists for centuries. These underground wonders are known for their intricate networks of tunnels, chambers, and unique geological features. However, mapping and studying these caves have always posed challenges due to their complex and often inaccessible nature.

Enter Slam100, a revolutionary technology that has revolutionized the way we scan and gather accurate 3D spatial information of karst caves. Slam100 is a state-of-the-art scanning system that combines simultaneous localization and mapping (SLAM) technology with advanced imaging techniques. This cutting-edge system allows researchers and explorers to capture detailed and precise data of karst caves, enabling a deeper understanding of their geomorphological features.

Building capable robots starts with better human demonstrations.
The new Agility A2 + ExoArm-7 VLA Suite is a wearable bimanual teleoperation platform designed to help researchers, developers, and robotics teams move faster from human demonstration to robot learning and real-world task validation.
By combining the Agility A2 dual-arm robot with the ExoArm-7 wearable exoskeleton system, this solution enables natural human motion capture, synchronized multimodal data collection, model training, and real-time robot inference within one integrated workflow.
For embodied AI research, imitation learning, and Vision-Language-Action development, it provides a more direct path from “showing” a robot how to perform a task to building an autonomous policy that can execute it.

One of the standout features of the V500 drone is its impressive flight capabilities. With a maximum flight time of up to 30 minutes, this drone offers extended flight durations, allowing users to cover larger areas and capture more footage in a single flight. Additionally, the V500 drone boasts a maximum control range of up to 1 kilometer, providing users with the freedom to explore and capture footage from a distance.