Collaborative robot arms

• Skin-sensing models that stop before contact.
• Washdown models for food and pharma.
• Force-sensing models for polishing and compliant assembly.

Payload is the first question and usually the one that narrows the field fastest. Weigh the heaviest thing the arm has to lift, the gripper included, then look at the models above it. Reach comes next, then whether the arm has to survive being hosed down at the end of a shift.

Working beside people is a design decision, not a setting you switch on. The arm senses someone approaching and stops before it reaches them, which is what lets it stand on an open floor instead of inside a cage, and what lets you rearrange the line around it later without starting the safety case again.

Every arm in the range runs the same software, so training is paid for once and carries across the fleet. An engineer who has scripted one arm can script any of them, and an operator who can teach one by hand can teach the rest.

Every job runs the same five steps: assess, supply, integrate, train, support.

Sixteen applications where cobots pay off, from machine tending to hospitality and retail.

Most of an installation is not the robot. It is the fixture that holds the part, the sensor that confirms the part arrived, and the handshake with whatever software the line already runs. That work decides whether the arm earns anything, and we do it before delivery rather than discovering it on your floor.