TPM SLS 3D

Robot grippers and end-of-arm tooling

SLS 3D Printing for Robot Grippers and EOAT

SLS can be considered for custom gripper fingers, tooling brackets, sensor covers, cable guides and fixtures when the design requirements and validation plan are defined before production.

Robot end-of-arm tooling (EOAT) is the gripper, bracket, sensor, cable, vacuum or handling assembly attached to a robot flange to interact with a workpiece or process.

Content reviewed: 7 September 2026

SLS 3D printed nylon robot gripper and end-of-arm tooling components

Target customers

Robotics companiesAutomation integratorsEquipment R&D teamsFactory engineering teams

Industry pain points

What makes this application difficult?

  • !Robot tooling geometry may change while the part, sensor, flange and cell layout are being validated.
  • !Payload, acceleration, gripping force and failure consequences must be defined before replacing a conventional part.
  • !Cable routes, vacuum paths, fasteners, datums and protected interfaces can compete for limited space.

SLS solution

How SLS helps before tooling

  • ✓The surrounding powder supports the build, so SLS can form integrated passages and complex geometry without separate support structures.
  • ✓Material selection can start with PA12, PA11 or a filled nylon family, but the exact grade, orientation, conditioning and evidence must be confirmed.
  • ✓Design variants can be reviewed together, while each final tool still requires project-specific fit, load, interface and cycle validation.

Application modules

Parts commonly reviewed for Robotics & Automation

Use these examples to prepare CAD files, quantities and critical-feature notes for RFQ review.

Robot gripper fingers

End-of-arm tooling brackets

Sensor housings and covers

Cable-routing clips and guides

Positioning nests and fixtures

Vacuum adapters and manifolds

Inspection fixtures

Prototype robot-cell components

Material recommendation

Choose PA12, PA11, PA12GB or TPU by function

Material choice should follow the real load case: stiffness, impact resistance, repeated flexing, contact feel and finishing requirements.

MaterialBest fitSelection logic
PA12 familyGeneral-purpose shortlistConfirm the exact grade, load case, orientation, environment, finish and printed-part validation.
PA11 familyDuctility-focused shortlistCompare the current grade when impact or flexible features matter; do not assume family-level performance.
Filled nylonStiffness-focused shortlistVerify filler type, content, surface, feature limits, interfaces, temperature and acceptance criteria.
Flexible gradeContact or compliant featuresConfirm current availability, hardness method, friction, abrasion, environment and cycle requirements.

RFQ evidence

Robot-tooling requirements before quotation

Use this checklist to separate design inputs, material evidence, schedule assumptions and measurable acceptance criteria.

Application inputsDefine the handled part, robot model, flange, task, payload, acceleration, gripping force and failure consequence.
Material evidenceState the exact grade if specified, or provide the stiffness, ductility, environment and documentation requirements.
Quantity stagesSeparate design-validation pieces, pilot quantity and any expected repeat order; each stage may need different evidence.
Schedule basisProvide the delivery target, but require a project-specific schedule after DFM, material, finishing and inspection review.
Acceptance criteriaDefine measurable acceptance criteria for fit, mass, interfaces, leakage where relevant, load, cycle test and inspection.

Design advice

DFM notes before uploading CAD

Identify flange, datum, fastener, sensor, cable and vacuum interfaces as controlled features in the CAD and drawing.

Provide payload, acceleration, gripping force, offset and failure consequence so the load path can be reviewed.

Use smooth transitions at finger roots and mounting features, then validate the critical load case on representative parts.

Specify inserts or other hardware by part number, installation method, assembly torque and required verification.

Define temperature, chemicals, moisture, UV, abrasion and cleaning exposure before selecting a material grade.

Treat mass reduction as a measured project result, not a general SLS guarantee; compare the same function and acceptance criteria.

Related engineering resources

Continue reviewing the design

Robot gripper and EOAT design guideSLS design guidelinesThreaded inserts in SLS partsRead an SLS material TDSCompare SLS materials