Automate repetitive machine loading and unloading.
A machine-tending cell presents raw parts, loads the machine, starts the cycle, removes finished components and can complete secondary handling or inspection before the next cycle.
What the cell is designed to achieve.
Performance is confirmed against representative products, the complete process and agreed acceptance criteria.
Application outcome to validate during concept engineering.
Application outcome to validate during concept engineering.
Application outcome to validate during concept engineering.
Application outcome to validate during concept engineering.
How the application is defined before equipment selection.
The concept is developed from the full production sequence. This prevents the robot from being selected around one isolated pick while missing presentation, machine time, product variation or operator interaction.
- Map the complete operator sequence
- Confirm machine cycle and available signals
- Design raw and finished-part presentation
- Select grippers for both part states
- Plan door, chuck, fixture and tooling interaction
- Prove safe recovery from faults and interrupted cycles
What to send for a useful feasibility review.
The quality of the first concept depends on the information available. Photographs and video are useful, but product and process data allow payload, reach, cycle and interfaces to be checked more reliably.
- Raw and finished part drawings, mass and surfaces
- Machine make, model and interface documentation
- Cycle time and loading window
- Door, chuck, clamp or fixture sequence
- Batch sizes and product variants
- Coolant, swarf, temperature and cleaning conditions
Robot types to evaluate for this task.
These platforms illustrate credible starting points. The final choice follows load, motion, rate, environment, tooling and safety validation.
Flexible Small Pick-Up Robot
Reference model BRTIRUS0805A. Published data is used for initial comparison and must be validated against the complete application.
View reference platform →Six-Axis Collaborative Robot
Reference model BRTIRXZ0805A. Published data is used for initial comparison and must be validated against the complete application.
View reference platform →Professional Six-Axis General Robot
Reference model BRTIRUS2550A. Published data is used for initial comparison and must be validated against the complete application.
View reference platform →170 kg Six-Axis Automotive Robot
Reference model BRTIRUS2917B. Published data is used for initial comparison and must be validated against the complete application.
View reference platform →Frequently asked questions
These answers provide an initial planning framework. Final requirements are confirmed against the product, process, site and applicable safety obligations.
Can a robot tend an existing machine?
Often, if the robot can access the loading position and the machine can provide suitable cycle, status and safety interfaces. Doors, chucks, fixtures or controls may need modification.
Can one robot tend two machines?
Yes, where cycle times, layout, part buffers and fault handling allow. Simulation or timing analysis should confirm that the robot is not the bottleneck.
How are parts presented to the robot?
Options include trays, drawers, conveyors, bowl or step feeders, pallets and vision-guided bins. The best method depends on part geometry, batch size and autonomy required.
Can machine tending support lights-out production?
Potentially, but autonomy depends on part supply, finished-part capacity, tool life, swarf and coolant management, inspection, fault recovery and machine reliability—not only the robot.
Continue planning your automation project
Use these pages to compare approaches, define the application and prepare the information needed for a useful feasibility review.
End-of-arm tooling
Develop the gripping method around the real product and cycle.
Read more →How to choose a robot
Check payload, work envelope, cycle, environment, safety and interfaces.
Read more →Robot automation cost
Understand the complete project scope before comparing budgets.
Read more →Robotic press tending
Coordinate loading, unloading, safety and press handshakes.
Explore →Robot simulation
Check machine access, collision and indicative cycle before build.
Explore →Review this production task with us.
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.