Robot grippers engineered around the real product.
The end effector determines whether the robot can handle the product consistently. We specify or design vacuum, mechanical, magnetic and application-specific tooling around the product, cycle, environment and changeover requirements.
Select the gripping principle from product behaviour, not appearance alone.
A product that looks straightforward may flex, leak vacuum, mark easily or arrive in inconsistent positions. Trials can be valuable where surface condition, porosity, centre of gravity or packaging variation creates uncertainty.
The complete moving payload includes the gripper, tool changer, sensors, hoses, cables and product. That total must remain within the robot’s payload and wrist-moment limits throughout the motion.
- Vacuum cups and zoned vacuum arrays
- Parallel, angular and adaptive mechanical grippers
- Magnetic handling for suitable ferrous parts
- Fork, clamp and layer-handling palletising tools
- Dual-purpose or multi-product tooling
- Automatic tool-change systems
The right gripper protects output, product quality and uptime.
Tooling must release the product cleanly as well as grip it. It should tolerate normal product variation, provide confirmation of a successful pick and allow maintenance access without unnecessary downtime.
For packaging and palletising, the design may also need to handle slip sheets, pallets, interlayers or multiple products per cycle. For machine tending, it may need to grip raw and finished parts, operate doors or chucks, and manage swarf or coolant.
- Product mass, dimensions and centre of gravity
- Surface, porosity, temperature and cleanliness
- Permitted contact areas and marking limits
- Pick and place orientation
- Cycle rate and acceleration
- Changeover and cleaning requirements
Tooling, utilities and software are engineered as one system.
Pneumatic valves, vacuum generation, sensing, cable routing and tool identification all affect reliability. The control sequence should detect failed picks, incomplete release and tooling faults before they become downstream problems.
We define the end effector together with the robot path, product presentation and safety concept so the tool works across the complete envelope rather than only at a single test position.
- Grip and part-present sensing
- Vacuum monitoring and blow-off
- Pneumatic and electrical routing
- Collision and overload considerations
- Maintenance and spare-wear components
- Tool validation with representative products
Frequently asked questions
These answers provide an initial planning framework. Final requirements are confirmed against the product, process, site and applicable safety obligations.
Which robot gripper is best for boxes?
Vacuum is common for sealed cartons, but the correct choice depends on board quality, tape, surface leakage, mass, pick orientation, acceleration and whether several boxes are handled at once.
Does gripper weight reduce robot payload?
Yes. Published robot payload must include the complete end effector, sensors, valves, hoses, cables and the product. Wrist moments and centre of gravity also need checking.
Can one gripper handle several products?
Often. A multi-product tool may use adjustable fingers, multiple vacuum zones, recipe-controlled settings or automatic tool change. The best approach depends on variation and changeover frequency.
Should tooling be tested before the cell is built?
Testing is sensible when the product is porous, flexible, fragile, inconsistent, hot, wet, oily or difficult to present. A handling trial can reduce technical risk before detailed design.
Continue planning your automation project
Use these pages to compare approaches, define the application and prepare the information needed for a useful feasibility review.
How to choose an industrial robot
A practical selection framework covering payload, work envelope, cycle, safety and interfaces.
Read more →Robot automation cost
Understand whole-cell cost drivers before comparing project quotations.
Read more →Discuss your application
Send product, process and output information for an initial engineering review.
Read more →Robot gripper types
Compare gripping principles, failure modes and product suitability.
Explore →Robot bin picking
See how tool access and collision shape random-part picking.
Explore →Discuss the production task with an automation engineer.
Send the product details, required output, available space and a photo or short video of the current process. We will review the application and identify the next engineering step.