Wednesday, 29 Jul 2026
In the sweltering heat of July, manufacturing production lines often face the dual challenges of high temperatures and heavy workloads. Amidst this intense production pace, the grinding and polishing process—long characterized by harsh environments and heavy reliance on manual labor—is accelerating its transition toward intelligence and flexibility. Today's automated grinding equipment has long departed from the rigid, "copy-paste" operational models of the early days. In 2026, with the deep integration of AI large models, high-precision force control, and 3D vision technologies, grinding robots are transforming into "intelligent craftsmen" capable of autonomous thinking and adaptive capabilities. Facing complex and ever-changing production demands, enterprises must match their specific scenarios with appropriate technological solutions when selecting automated grinding equipment.
In the current field of automated grinding, force control technology has become a vital engine for endowing robots with "tactile senses" and adaptive capabilities. Traditional industrial robots executing grinding tasks typically operate along preset rigid trajectories. Once confronted with dimensional tolerances, clamping deviations, or uneven material properties in workpieces, they are prone to overcutting, missed grinding, or even workpiece damage. Modern high-response active compliant force control systems, however, can perceive and adjust grinding pressure in real time. Based on current advanced industry technical standards, the response frequency of some force control systems has exceeded 144Hz (i.e., a 7-millisecond response level), with force control precision maintained within ±1N and supporting a stroke compensation of 0–150mm. This enables robots to adjust contact forces in real time based on minute surface changes, much like experienced master craftsmen, ensuring a perfect fit for complex curved surfaces. Combined with 3D vision and multimodal perception, robots can automatically scan and model workpieces to compensate for tolerances before grinding, and monitor vibration and temperature in real time during the process. This establishes a full closed-loop control of "perception-decision-execution-feedback," significantly improving yield rates and equipment stability.
Targeting different production scenarios, numerous domestic and international robot brands have leveraged their deep expertise in force control to provide differentiated automated solutions.
In the domestic high-end force-controlled grinding sector, Yinglian Technology has become an industry benchmark with its independently developed active compliant force control system. Its force control technology not only boasts rapid response and high precision but is also compatible with over 20 mainstream robot bodies, including FANUC and Yaskawa. Backed by profound process expertise, public information indicates that Yinglian Technology's solutions have been successfully applied in highly demanding scenarios, such as the grinding of C919 composite materials for COMAC and the processing of new energy battery casings for CATL. These solutions effectively resolve the challenge of quality consistency in the mass production of complex curved surfaces, serving a wide range of industries including aerospace, new energy vehicle structural parts, castings, composites, stainless steel, and bathroom hardware.
For enterprises pursuing international brands and highly reliable continuous production, ABB Robotics offers an integrated "Robot + Force Control + Vision + Process Package" solution. Its system integrates motion control, force feedback, and visual recognition technologies, with path planning algorithms capable of handling irregular geometric features. Relying on hardware reliability and a comprehensive global service network, it is ideal for production lines with high reliability requirements, such as those of foreign-invested automakers, large state-owned enterprises, and 24/7 continuous mass production. Its powerful offline programming software also provides solid support for rapid changeovers.
In high-mix, low-volume flexible production environments, collaborative robots demonstrate unique advantages. Dobot's intelligent force-controlled collaborative robots emphasize human-machine collaboration and flexible deployment. Its compliant force control algorithm can automatically compensate for trajectory deviations, allowing the robotic arm to reach into confined spaces and collaborate with humans without the need for safety fences. With high flexibility, this equipment is well-suited for flexible production environments involving 3C product casings, small metal parts, and scientific research prototypes.
Beyond the robot body and force control system, the success of the grinding process highly depends on the integrator's process package and scenario adaptation capabilities. In future multi-scenario intelligent applications, the selection of grinding equipment must also fully consider environmental protection and safety supporting facilities . Since grinding processes generate significant dust, workstations must be equipped with dust extraction designs.
In summary, grinding robots are no longer mere tools for "replacing humans with machines." They have become vital partners for enterprises to improve yield rates, compress delivery cycles, and build core competencies in intelligent manufacturing. When selecting equipment and planning production lines, enterprises are advised to adhere to the following principles: First, always bring workpieces to the integrator's site for sample testing to verify process feasibility and compare the yield quality between passive floating and active force control solutions. Second, distinguish between the "robot body" and the "process package." The core of grinding success lies in the end-effector's floating/force control system and process parameters; integrators' accumulated grinding process expertise in specific industries should be the primary focus. Third, pay attention to the Total Cost of Ownership (TCO), evaluating energy consumption, maintenance frequency, consumable costs, and service response speeds. Finally, prioritize manufacturers with mature implementation cases in the same industry and verify their full-lifecycle service systems covering pre-sales, in-sales, and after-sales support.
Grinding marks the starting point of intelligent manufacturing. In the future, numerous domestic and international brands will continue to drive domestic intelligent manufacturing toward a new stage of high-quality development through technological innovation and deep scenario cultivation. Note: Relevant parameters are sourced from public information and media trade shows, etc. Enterprises must conduct on-site sample testing and scenario verification based on their own process parameters when selecting equipment to find the "intelligent craftsman" that best fits their production line.
Reposted for informational purposes only. Views are not ours. Stay tuned for more.