SYNDA R1 is an industrial-grade embodied smart device built for industrial scenarios. With its excellent performance and wide applicability, SYNDA R1 is bringing new technical references to manufacturing automation deployment.
There is a significant difference between the industrial production site and the laboratory environment. The workshop has environmental characteristics such as high noise, mechanical vibration, electromagnetic interference from multiple equipment, and dust. At the same time, the production process has clear requirements for equipment operation accuracy, continuous operation time, interface compatibility, and human-computer interaction safety.
In aspects such as precision assembly, electronic component testing, warehousing and logistics, and production line coordination, each has its own unique technical needs.
However, some embodied smart products have problems such as insufficient environmental adaptability and limited long-term operation stability when being implemented in industrial scenarios.
Newstar combines its technology accumulation in the field of industrial automation to build an industrial-grade technology framework with scene adaptation as the core, allowing equipment design to deeply match production scenarios.
In precision assembly scenarios, SYNDA R1 performs well.
It is equipped with a self-developed integrated multi-layer heterogeneous intelligent control system and adopts an integrated perception-planning-operation control architecture to improve system response speed and operational stability, and reduce jitter and positioning deviation during operation.
The equipment supports two execution end configurations, dexterous hand and gripper, which can achieve millimeter-level precision operations. The load of both arms is available in three specifications: 3kg, 5kg, and 10kg. The upper limb rotation range covers – 180°~180°, the waist lifting range is 0~61cm, the working height is 0~210cm, and the working diameter is 195cm. It can cover the space requirements of multi-station assembly and is suitable for multi-category assembly tasks such as automobile parts and electronic components.
Electronic component testing scenarios have higher requirements for equipment operation flexibility, positioning accuracy, and environmental tolerance.
SYNDA R1’s full-stack self-developed joint module has bus nanosecond-level synchronization and full-band vibration suppression capabilities, enabling smooth operation without impact and avoiding damage to precision components.
The equipment is equipped with 3D lidar and environmental sensing systems, which can accurately identify the location and status of components, and complete non-contact and light-touch detection with millimeter-level operating accuracy.
At the same time, the structure is optimized for the dusty environment of the workshop, which can maintain long-term stable operation in complex industrial environments and reduce the impact of environmental factors on detection accuracy.
The warehousing and logistics handling scenario requires equipment to have mobility flexibility, grabbing adaptability, and long-lasting battery life.
SYNDA R1 is equipped with a four-chamber wheeled chassis that can move smoothly in the storage aisle; it is equipped with an omnidirectional flexible obstacle avoidance system that can identify people, shelves and obstacles, improving operational safety.
The operating range of the equipment covers the ground to high-level shelf areas, and the adaptive grabbing function can adapt to materials of different specifications to meet the handling needs of various types of materials in warehousing scenarios.
Dual-battery hot-swappable autonomous power swapping and automatic recharging technology can support long-term continuous operation and adapt to the production rhythm of multi-shift operations in the warehouse.
Production line collaborative operations require equipment and production line rhythm matching, human-computer interaction safety, and multi-device interface compatibility.
SYNDA R1 adopts industrial-grade safety protection and modular design. Its omnidirectional flexible obstacle avoidance function can ensure the safety of human-machine collaborative work. The standardized interface protocol can improve compatibility with production line equipment and reduce the transformation cost of large-scale deployment.
The equipment can adjust the operation process according to the production tasks, adapt to the task change requirements caused by order switching and production line adjustment, and improve the flexible production capacity of the production line.
The industrial applicability of equipment needs to be verified through real scenarios. Newstar relies on factory resources within the industrial ecology to extend R&D testing to industrial sites. It has completed multiple task verifications in Chongqing factories and other scenarios. The operating status is stable and the technical indicators meet the needs of industrial production.
At the same time, Newstar has an intelligent manufacturing demonstration factory certified by the Ministry of Industry and Information Technology, and has established a complete supply chain management, digital production process and quality control system. The annual production capacity of industrial robots can reach 10,000 units, which can meet the delivery needs of batch deployment in multiple scenarios in the manufacturing industry.
With SYNDA R1 as the core, SYNDA has built four major product matrices: collaborative robots, mobile composite robots, wheeled humanoid robots, and bipedal humanoid robots, which can cover the needs of industrial scenarios with different precisions, different spaces, and different complexities.
Relying on the layout of the entire industry chain and cooperating with ecological partners, we will continue to optimize the scene adaptation capabilities of equipment and promote the stable implementation of embodied intelligence technology in more industrial scenarios.
The core value of industrial embodied intelligence lies in scene implementation. SYNDA R1 takes industrial-grade scene-based design as its core, accurately matches the technical needs of four major industrial scenes, and effectively improves the problem of insufficient scene adaptation in the industry.
Through real industrial environment verification and large-scale mass production capabilities, it provides reference technical solutions for manufacturing automation upgrades, promotes the deep integration of embodied intelligence technology and industrial production scenarios, and provides technical support and practical reference for the scenario-based development of industrial automation.
