For industrial users, this does not simply mean a replacement for traditional robot cells, but rather a broader range of automation tools for production lines that are becoming more diverse, space-constrained, and labor-efficient.

Flexible robotics does not follow the rigid logic of custom-built machines

The most significant leap is likely coming from electronics manufacturing. In mid-April, AGIBOT announced the deployment of several AGIBOT G2 units in Longcheer Technology’s production lines. The robots are working on tablet production lines there, primarily at multimedia integrated testing stations, performing precise loading and unloading, placement in test fixtures, and sorting tasks. AGIBOT cites key figures of up to 310 units per hour, a cycle time of around 19 to 20 seconds, a success rate of over 99 percent, integration within 36 hours, and 24/7 operation with more than 140 hours of cumulative continuous runtime. What is decisive here is not only the humanoid or semi-humanoid form, but the ambition to bring “embodied AI” into a real, takt-based manufacturing environment. For users in electronics, medical technology, or precision assembly, this is an indication that flexible robotics in the future does not necessarily have to be conceived through rigid special-purpose machine logic.

Industrial performance without the integration hurdles of classic robot cells

With the new PoWa family, ABB is targeting a different niche: the gap between traditional cobots and more powerful industrial robots. According to ABB, the new PoWa cobots cover payloads ranging from 7 to 30 kilograms, reach speeds of up to 5.8 meters per second, and run on the OmniCore control platform. ABB positions them for applications such as machine tending, palletizing, screwdriving, and arc welding—precisely those tasks where many previous cobots fell short in terms of payload, reach, or cycle time. This shifts the focus: The question is no longer simply whether a robot is collaborative, but whether it delivers industrial performance without having to overcome the integration hurdles of traditional robotic cells.

Maximum portability instead of maximum payload

FANUC is taking the opposite, yet complementary, approach with the CRX-3iA: maximum portability instead of maximum payload. The new CRX-3iA weighs just 11 kilograms, has a payload of 3 kilograms, offers a reach of 692 millimeters, and is designed to be deployed by operators at different workstations within minutes. FANUC cites applications such as welding, parts handling, small assembly, screwdriving, tool positioning, and inspection. At the same time, FANUC is expanding the CRX series with functions for vertical welding, heavier palletizing, assisted heavy-load movements, dual nutrunner applications, as well as new control options featuring Python, ROS 2, and Streaming Motion for AI-driven applications. The message to users is clear: automation is becoming more modular, moving closer to the shop floor, and becoming more easily movable by the workers themselves.

The high end of collaborative lightweight robotics

Kassow Robots, in turn, is expanding the high end of collaborative lightweight robotics with the KR 1824 and KR 1240. The new seven-axis models are designed to handle higher payloads, offer greater reach, and address more demanding applications such as palletizing, machine tending, and material handling. Kassow highlights 50 percent higher joint torques, wrist axes that are more than 20 percent faster, and 40 percent higher mechanical stiffness. The context is also noteworthy: The models were showcased as part of Bosch Rexroth’s CU.BE digital at HANNOVER MESSE 2026. This makes it clear that cobot innovation is increasingly being embedded in larger automation ecosystems—control systems, software, digital factory models, and mobile integration are all factors in the purchasing decision.

The cobot world is diversifying

The common thread linking these four reports is simple: the cobot world is diversifying. On one hand, ultra-mobile systems are emerging for temporary, variable, and previously too-small automation tasks. On the other hand, higher payloads, greater speed, and more robust mechanics are being integrated into collaborative form factors. At the same time, AGIBOT demonstrates that AI-based, adaptive systems are being tested in real production lines. The old distinction between rigid industrial robots, safe lightweight cobots, and experimental AI robots is becoming less clear-cut.

Different cobot classes for specific bottlenecks in the factory

Tasks with high variability, short product cycles, and limited payload are increasingly becoming the domain of portable cobots or embodied AI approaches. Processes with clear cycle times, higher loads, and repetitive movements belong to the new class of high-performance cobots. And where space is limited or seventh axes provide freedom of movement, models like those from Kassow become interesting. Those investing today should therefore not only compare payload and reach, but also evaluate changeover time, usability, data connectivity, programming model, and scalability across multiple production lines. The real question is no longer whether cobots are ready for production, but which cobot class fits the specific bottleneck in the factory.