Robotics shaped by your process.
Eight application families and the applications proven under each. If your process is not listed, look at special solutions — that is where the work without a catalogue lives.
Machine & Press Tending
Robotic machine tending goes well beyond basic material handling. It feeds every machine from presses and injection moulding to CNC milling, turning and grinding — shortening cycle time while cutting human error and injury risk.
- CNC Machine TendingLoading and unloading CNC milling and turning machines. Mounted between or on top of machines to preserve floor space and run production around the clock.
- Press TendingFeeding stamping, punching, shearing and forging presses. Removes the operator from the press zone entirely, eliminating the highest-risk manual task.
- Injection Moulding TendingPart removal from injection moulding machines, sprue separation and transfer to downstream processes, with in-cell vision verification.
- Machining Center TendingFeeding grinding, drilling and machining centers with post-process gauging and sorting, pulling pre- and post-production inspection into the same cell to remove bottlenecks.
Surface Applications
Deburring, grinding, polishing and sandblasting deliver both consistent surface quality and a serious occupational-health gain through force-controlled robotics, with toolpaths adapted to part geometry by vision.
- DeburringRobotic removal of burrs left by machining, following a fixed path without deviation — faster than manual work and without laceration risk.
- GrindingForce-controlled robotic grinding applies identical pressure at every point, standardising surface quality and removing vibration-related occupational risk.
- PolishingConsistent, smooth finishes in high-volume production — bathroom products, aerospace, glass, automotive, medical devices and marine parts.
- SandblastingCleaning, stripping and pre-paint preparation of metal surfaces. The robot never deviates from spec, keeping the trajectory consistent and the operator outside the cabin.
Handling
Pick & place, packaging and palletizing move products of varying size, shape and weight in one flexible, vision-assisted cell — eliminating losses from repetitive motion and heavy lifting.
- Pick & PlaceHigh-speed, precise product transfer. Vision determines position and orientation, removing the need for expensive fixturing.
- PackagingRobotic integration into packaging and dispatch — high-speed, vision-assisted packing for food, beverage, medical supplies and consumer goods.
- PalletizingPalletizing and depalletizing across one or more lines for products of differing size, shape and weight.
Cutting
Laser, plasma, ultrasonic and waterjet cutting exploit robot reach to produce complex 3D geometries without dies, while offline programming cuts new-product teaching time to minutes.
- Laser CuttingNon-contact cutting with a small heat-affected zone and high precision, spanning plastics to metals with CO₂, fiber and crystal laser options.
- Plasma CuttingHigh-speed cutting of all metals including aluminium and stainless, with weld-ready bevels and part contour following.
- Ultrasonic CuttingClean, precise cutting with almost no heat input on rubber, plastics, fibre, food and circuit boards.
- Waterjet CuttingHeat-free cutting: pure water for plastics, composites, rubber and foam; abrasive water for steel, titanium, aluminium, marble and glass.
- Thermoform Plastic Laser CuttingA die-free, in-line robotic laser cutting process integrated with the vacuum forming machine, with new products taught from the 3D model.
Assembly
Smart robotic screwing and robotic vision measure where the part actually is instead of assuming. Precise assembly on variable planes becomes possible without costly fixturing.
- Smart Robotic ScrewingA screwing cell that finds the hole by 3D scanning, calibrates its sensors automatically and can be replenished without stopping — integrable into existing manual lines.
- Robotic VisionImage acquisition, object detection, pose extraction and conversion to robot coordinates — the 1D, 2D, line/area scan and 3D backbone behind every application.
- RivetingRobotic riveting delivers weld-free mechanical joints on sheet and profile assemblies with repeatable force and position control.
Welding
MIG-MAG, TIG, spot, stud, laser, plasma and ultrasonic welding. Removes the burden of finding and training welders while logging seam quality, with laser and touch seam tracking compensating part tolerance.
- MIG-MAG WeldingHigh deposition rate and fast seams — the process best suited to mechanised and robotic welding, with low consumable cost, little cleanup and good pool visibility.
- TIG WeldingPrecise, clean-looking seams on mild and stainless steel, aluminium, titanium, copper and nickel with low spatter and minimal cleanup.
- Spot WeldingA complete cell with servo or pneumatic gun, weld controller, product-specific fixturing, tip dressing and automatic cap change.
- Stud WeldingFull cross-section, reliable joints with single-sided access — fast for vehicles, shipbuilding, structures, cable management and power distribution.
- Laser WeldingLimited heat-affected zone, low distortion and non-contact processing across carbon, high-strength and stainless steel, titanium, aluminium and dissimilar metals.
- Laser Plastic WeldingNon-contact joining of thermoplastics with no particles and no visible marks — suited to precision parts requiring a sealed joint.
- Plasma WeldingStable arc, narrow seam and spatter-free operation with higher tolerance than laser, adjustable penetration and long electrode life.
- Ultrasonic WeldingLow-energy, distortion-free joining of thin-to-thick stacks, aluminium-copper and highly conductive materials — common in wire and circuit bonding.
- Gas-Shielded Welding ApplicationsThe full path from robotic feasibility analysis to commissioning: seam length and time, volume-speed-robot combination, reach simulation, fixturing decision, torch and sensor selection, occupational safety and after-sales continuity.
- Robotic Laser Welding Process SolutionsA turnkey laser welding cell that integrates easily into the line, needs no consumables and joins dissimilar metals with minimal thermal impact and cleanup.
Special Solutions
Systems developed from scratch for processes no standard cell covers. This is where Eurobotik's patented products and its depth in white goods come from.
- Surface Pipe Wrapping (Evap)Wrapping refrigerant pipe onto the freezer body with aluminium tape. A seventh axis runs in sync with the robot; cutting, flaring and tape change are automatic.
- Haptic Teaching SystemsThe patented Trajectory Record Arm (US12247694B2). Operator wrist motion is converted straight into a robot trajectory by tilt, distance and encoder sensors, drastically shortening programming time.
- Robotic CNC Machining SystemAn alternative to 5-axis CNC. Machines wood, styrofoam, marble and model blocks at large scale with external axes, programmed offline from CAD with automatic tool change.
- Quality Control & Grinding SystemMeasures the geometry of the area to be ground by camera and generates the toolpath for that specific part, standardising post-weld rework and reducing scrap.
- Condenser Taping SystemsA cell that applies 2–12 rows of insulation tape to the refrigerator side panel in a single pass, built from unloading, loading, bonding and tool-change stations.
Other Applications
Flaming, bin picking, clinching, sealing and additive manufacturing — processes that complete a cell or deliver serious gains on their own.
- FlamingRaising the surface tension of polyolefin and polypropylene before painting, foaming or bonding — automotive bumpers and dashboards, plastic packaging, printing and film.
- Bin PickingLocating and picking randomly oriented parts from a bin or pallet, combining advanced vision, the right gripper and an architecture that handles high data volume.
- ClinchingJoining two or more sheet layers by cold forming without welding or extra fasteners — common in white goods, HVAC and automotive.
- SealingMastic and sealant application on automotive glass, hoods and doors. Robotic dosing controls bead cross-section and lowers adhesive consumption.
- Additive ManufacturingRobot-assisted additive manufacturing of geometries conventional methods cannot produce — from prototype to production in aerospace, medical, automotive, construction and shipbuilding.
Which job on your line should the robot take over?
One part, one cycle target and one volume figure is enough. We'll handle the first assessment, from reach simulation to return on investment.