Motion, load path and connection
Compare working stroke, force bases, datums, rod or plate positions, mating geometry, coupling/return method and access on current drawings.
Pair mold demand with the configured machine and cell: working stroke, force basis, ejector pattern or coupling, forward/back evidence, part release, robot handoff and a safe acceptance record.
The buyer needs a revision-controlled comparison between the mold-required working motion and load, the configured machine capability, the physical connection and the complete part-removal sequence. Keep unknown demand, geometry or handoff states open rather than converting a catalogue maximum into a fit decision.
Keep ejection inside the complete mold-fit reviewDo not merge mold demand, machine maximums and robot signals into one unsupported “compatible” answer.
Compare working stroke, force bases, datums, rod or plate positions, mating geometry, coupling/return method and access on current drawings.
Define the part/runner release condition, removal clearance, robot or handling states, fault ownership and evidence required before the next machine movement.
Keep the mold-required value and the proposed-machine value in separate columns with source, revision and approval status.
| Field | Record for the proposed machine and mold | Evidence to request |
|---|---|---|
| Interface identity | Machine and clamping-unit configuration, mold, moving-side assembly, molded part, ejector option, robot or handling device and every drawing revision | Controlled machine, platen, mold and cell drawings with named owners and revision status |
| Mold ejection concept | How the mold designer intends the part and runner to release, which mold assembly moves and which assumptions were used | Mold engineering record, ejector concept and current mold-function documentation |
| Required working stroke | Required mold-ejector travel, measurement datums, start/end positions, permitted setup range and source status | Dimensioned mold section or motion drawing plus calculation, simulation or representative trial basis |
| Available machine stroke | Configured machine-ejector travel, programmable or mechanical limits, position reference and any option dependency | Current supplier data, configured drawing and written confirmation for the proposed machine |
| Required force basis | Mold-side force demand, direction and position through the intended stroke, with measured, calculated or estimated status | Toolmaker or responsible engineer record with assumptions, method, revision and approval owner |
| Available machine force | Configured ejector-force basis, applicable direction and operating conditions, plus any stated limit or option boundary | Supplier-confirmed technical data and the acceptance method for the identified configuration |
| Ejector pattern and load path | Machine rod or plate positions, mold contact points, central or off-center arrangement, datums, clearances and load-transfer path | Overlay of the machine platen/ejector drawing and mold moving-side drawing |
| Rod, bolt or coupling | Selected connection method, component identities, thread or mating geometry, engagement, release method, access and change responsibility | Released interface detail and current component instructions; no assumed cross-machine coupling fit |
| Return and position evidence | Required forward/back states, return method, end-position detection or confirmation and the fault response expected by the cell | Configured control description, signal list and safe acceptance record |
| Part-removal window | Mold-open position, part/runner release state, clearance for manual or automated removal and downstream destination | Cell motion/clearance review linked to the mold, part and end-of-arm tooling where used |
| Robot handoff | Required ejector and robot positions, enable/complete semantics, part-presence or removal confirmation, reject path and restart ownership | Interface register with exact specification/release, endpoint mapping and planned function test |
| Acceptance and change control | Test configuration, approved method, observations, deviations, punch-list closure, retained files and recheck triggers | Signed FAT/SAT or mold-trial record tied to the delivered machine, mold, software, options and cell |
This sequence structures procurement evidence; it is not a mold design, setup, operating or safety-validation procedure.
Use the exact clamping-unit configuration, mold revision, molded part, ejector arrangement and removal method. A family name or maximum catalogue field is not an interface record.
Record mold-required working stroke and force basis beside the supplier-confirmed machine stroke and force. Keep units, directions, datums, assumptions and option dependencies visible.
Compare rod or plate positions, the load path, mating geometry, coupling or return detail, clearances and maintenance access on controlled machine and mold drawings.
Name the intended mold-open, ejector, part/runner and robot states through release, takeout, reject handling, return and readiness for the next cycle.
Assign each requirement to document review, supplier-approved function check, representative mold trial, FAT or SAT. The responsible machine, mold, robot and site parties must approve the method.
Keep the as-built drawings, configuration, observations, signal evidence, deviations and approvals. Reopen the review after a mold, ejector component, software, robot or sequence change.
A completed ejector motion does not by itself confirm acceptable part release, successful robot takeout or downstream receipt.
Define the part and runner condition that must be achieved before removal. Do not treat completed ejector travel alone as proof of acceptable release.
Record the mold-open position, ejector state and available path for the intended operator, chute or end-of-arm tooling.
Where automation is used, define the exact position, enable, part-availability/removal and fault semantics in the controlled interface register.
Define which confirmed states allow ejector return, robot exit and the next machine movement, including ownership of abnormal or incomplete handoffs.
The source record separates current drafts, product-specific technical data, an automatic-mold-change coupling reference, robot data semantics and the safety boundary. No source value is transferred to NEW ORIENTAL IMM.
The official January 2026 draft separates ejector drive, end-position sensing, maximum ejector stroke and maximum ejector force as distinct machine-data fields.
Boundary: This is a draft data model, not a sizing rule, acceptance method or proof of any NEW ORIENTAL IMM configuration. Final fields and publication status require technical review.
The official January 2026 draft places the ejector concept, target-machine assumptions, peripheral devices, machine-ejector stroke and mold-function check inside the mold engineering handover.
Boundary: This draft supports a structured mold-side record. It does not design the mold, calculate ejection demand or release an interface for production.
The official technical sheet is a product-specific example that lists ejector force and stroke separately and shows ejector-bolt, mold-bore and optional coupling information in mold-installation drawings.
Boundary: Its values and geometry belong to the identified ARBURG machine and stated equipment. They are not copied into a universal rule or attributed to NEW ORIENTAL IMM.
The official recommendation includes a dedicated part for coupling the ejector within automatic mold-changing scope.
Boundary: EUROMAP 11 is an automatic-mold-change reference from 1993. It is not generalized to every mold, machine or manually connected ejector; exact edition, mechanism and supplier approval still control.
The official page labels this as Release Candidate 1.00.06 (updated version March 2024) and lists ejector position signals, part availability/tracking and robot inserting or removing signals for data coordination.
Boundary: This release candidate supports only the stated ejector, part and robot data-coordination semantics. It does not prove mechanical ejector fit, provide the safety interface or establish capability of the proposed machine; the official page states that safety signals use EUROMAP 81. Confirm the exact RC and implementation.
OSHA identifies mold-area crushing hazards, including reaching in to loosen a stuck part, and describes guarding, interlock and lockout/tagout boundaries.
Boundary: This source provides a US safety boundary only. Applicable law, the machine/cell risk assessment, manufacturer instructions and the site's authorized procedure govern actual work.
These answers keep catalogue maximums, mold demand, mechanical coupling and robot coordination from being mistaken for one decision.
No. Record the mold-required working stroke and datums, the configured machine travel, the rod or plate pattern, connection method, opening/removal clearance, sequence and acceptance evidence. A maximum value does not prove that the complete interface works.
Do not use part weight as a universal force rule. Ask the mold designer or responsible engineer for a traceable force-demand basis for the identified mold and part condition, then compare it with the supplier-confirmed configured-machine basis and a representative acceptance plan.
No. The machine rod or plate positions, mold contact points, datums, load path, mating geometry, coupling or return method and clearances must be compared on controlled drawings. Keep any mismatch as an open engineering action.
No. A robot interface can define position, enable or part-handoff semantics, depending on the exact document and implementation. The ejector rod, plate, bolt or coupling remains a separate mechanical interface that needs its own drawing and approval.
No. Machine position, part release, robot takeout and downstream receipt are different states. Define which evidence confirms each required state and how an incomplete or abnormal handoff is handled by the approved cell design.
No. This is an RFQ and evidence checklist. Setup, inspection and testing must follow current manufacturer instructions, applicable rules, the machine/cell risk assessment and the site's authorized guarding and energy-control procedures.
Include controlled machine, platen, mold and cell drawings; required and available stroke/force bases; rod or plate pattern; coupling/return details; position evidence; release/removal sequence; robot and reject semantics; acceptance method; deviations; and recheck triggers.
Attach the controlled machine, platen, mold and cell drawings; required and available stroke/force bases; rod or coupling detail; release/removal states; robot interface record; safe acceptance method; deviations; and recheck triggers.
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