Cobot integration is the engineering work of building a collaborative robot into a production cell: wiring its controls, tying it to the PLC and safety circuits, adding any vision, and running the risk assessment that makes it safe to work near people. The robot is one part; the integrated, risk-assessed cell is the deliverable.

Cobot integration at a glance

Cobot integration takes a collaborative robot and makes it a working part of your line. The robot arm is only the starting point. Integration means designing the end-effector and fixturing for the task, wiring the robot to the cell controls, building PLC handshakes so the robot and the rest of the equipment coordinate, tying in safety circuits and any vision system, and completing the risk assessment the installation requires. A cobot is not safe simply because it is collaborative: under ISO 10218 and the collaborative guidance now folded into ISO 10218-2:2025, safety is a property of the whole application, the robot, the gripper, the part, the speed, and the layout together. HOJ integrates FANUC and collaborative robot cells as part of in-house controls engineering, and the cell, not just the robot, is what we stand behind.

What does cobot integration involve?

Robot integration starts with the task and the cell, not the robot. An integrator defines the application, selects or confirms the robot and end-effector, then engineers the controls: the PLC logic and handshakes that sequence the robot with conveyors, fixtures, and upstream equipment, the safety circuit that ties emergency stops and guarding into a rated system, and any vision or sensing the task needs. The integrator then conducts a task-based risk assessment of the complete system, because under ISO 10218-2 the integrator, not the robot maker, is responsible for the safety of the installation. Even a fully compliant robot in a poorly integrated cell is non-compliant. Commissioning validates the controls, the safety functions, and the cycle before the cell runs in production.

What are the collaborative safety methods?

ISO 10218 and the collaborative requirements absorbed from ISO/TS 15066 define four collaborative methods. The right one depends on how closely people share the robot's space and on the tooling and part the robot carries.

Where cobot integration applies

Machine tending. Loading and unloading CNC, presses, and injection molding.

Assembly. Repetitive fastening, fitting, and component placement.

Palletizing. Stacking cases and cartons at the end of a line.

Pick and place. Moving parts between conveyors, fixtures, and bins.

Packaging and inspection. Vision-guided sorting, kitting, and quality checks.

Why does the cell, not the robot, decide safety?

The most common misunderstanding in robot integration is that a collaborative robot is inherently safe. It is not. A sharp gripper, a heavy or hot part, or high speed can injure a person even with a cobot, which is why ISO 10218 treats safety as a property of the whole application and requires a risk assessment before the robot runs near people. Power and force limiting allows fenceless operation but constrains speed and force, so higher-throughput tasks often need speed and separation monitoring or guarding instead. Choosing the right collaborative method, and proving it through the risk assessment, is the integrator's job. That is why the engineered, risk-assessed cell is the real deliverable, not the robot on its own.

Integrate your cobot cell with HOJ

HOJ integrates FANUC and collaborative robot cells as part of in-house controls engineering, building the PLC handshakes, safety circuits, and vision tie-ins and standing behind the risk-assessed cell. Talk to a controls engineer.