1.Top-Entry Injection Molding Robots
Top-entry robots access the mold area from above, making overhead clearance and vertical movement key selection factors.

Suitable for: Applications where the mold can be accessed from above and the factory layout accommodates the robot's mounting arrangement.

Selection priorities:

• Vertical stroke and mold-opening clearance.
• Payload, including EOAT and workpiece weight.
• Part-release position and transfer distance.
• Overhead installation space and maintenance access.

2.Side-Entry Injection Molding Robots
Side-entry robots approach the mold from the side. Their suitability depends on lateral access, the required take-out path, and surrounding equipment.

Suitable for: Production layouts where lateral access better accommodates the molding process or downstream transfer arrangement.

Selection priorities:

• Available side clearance and robot mounting space.
• Reach and movement envelope.
• Interference risks around the mold and machine structure.
• Part-transfer direction and downstream equipment position.

3.Servo-Driven Robot Configurations
Servo-driven motion supports controlled, programmable axis movement. Depending on the selected model, it can accommodate defined movement sequences and coordinated part handling.

Suitable for: Applications requiring programmable motion, repeatable transfer paths, or more flexible movement sequences.

Selection priorities:

• Available axes and motion range.
• Rated payload and permitted load characteristics.
• Required movement sequence and target cycle time.
• Controller compatibility and programming requirements.
• Servo-driven motion may be available with different access configurations, depending on the product range.

4.Application-Specific Robot Solutions
Specialized applications may require dedicated tooling, multi-part handling, insert handling, or integration with additional production equipment.

Configuration options may include:

• Custom mechanical or vacuum gripping tools.
• Multi-part take-out arrangements.
• Part rotation, orientation, and controlled placement.
• Insert handling or specialized gripping sequences.
• Interfaces for conveyors, inspection stations, and collection systems.

Component and Assembly Inspection
The inspection plan should identify the checks applicable to the supplied equipment, including component condition, assembly, wiring, connections, and configuration verification. Available inspection records and traceability documentation should be confirmed before ordering.

Functional and Performance Testing
Testing should cover the functions specified in the purchase agreement. Depending on the configuration, agreed checks may include:

• Axis movement and controller operation.
• Programmed sequences and relevant input/output signals.
• Sensor and interlock functions.
• Specified movement or positioning performance.
• Handling sequence and cycle-time verification under defined conditions.
• Performance claims should be supported by agreed test methods and recorded results where required.

Factory Acceptance Test (FAT)
If FAT is included in the project scope, agree on the acceptance criteria before testing.

The FAT plan may cover model and configuration verification, functional operation, relevant interface checks, specified performance tests, documentation, and outstanding-item records.

Confirm whether the FAT is standard or optional, whether the customer may witness the test, and which reports will be supplied.

Certifications and Compliance Documents
Product certification, quality management certification, and system-level compliance are different matters.

Before ordering, identify the requirements applicable to the product and destination market. Request the relevant certificates, declarations, test reports, and technical documents available for the supplied configuration. Verify the issuing organization, scope, validity, and applicable product models.