Moving an existing die can create quality, timing, and production risks when tooling condition, maintenance history, or process knowledge is incomplete.
Gromax reviews transferred and inactive dies to determine what’s needed to restart production reliably, whether that means repair, refurbishment, process changes, new gaging, or a complete rebuild.
Inspect punches, die sections, inserts, forms, pilots, retainers, springs, guides, stripper components, wear plates, and other working details for damage, wear, or missing components.
Compare available sample parts and current production results against the latest drawing, revision, tolerances, and critical-to-quality requirements.
Review station layout, strip support, pilot strategy, forming sequence, carrier design, cutoff method, and any conditions that may affect feed stability or part consistency.
Confirm shut height, feed direction, tonnage, bed size, stroke, material width, coil handling, and other requirements needed to run the tool in the intended press.
Identify worn components, obsolete details, high-risk wear areas, missing spares, and preventive-maintenance items that should be addressed before production restarts.
Review material grade, thickness, temper, coil condition, grain direction, lubrication, and any past material changes that may affect forming or tool life.
Determine whether existing gages and inspection methods are usable, repeatable, and aligned with the current print and production requirements.
Review how tapping, machining, deburring, cleaning, heat treatment, plating, assembly, and packaging may affect final part acceptance.
Evaluate setup sheets, maintenance records, spare-part lists, inspection reports, capability data, change history, and known production issues when available.
Identify concerns related to guarding, sensors, misfeed protection, scrap evacuation, part ejection, die handling, or safe operation before the tool is released to production.
Wear may not be obvious until the die is set and run, especially around punches, cutting sections, forms, pilots, and guidance components.
Engineering changes may have been made without complete tooling updates or documentation.
A tool may produce parts while still showing variation in flatness, form position, hole location, burr size, spring force, or overall fit.
The original supplier may have relied on a specific press, feed setup, lubrication method, or operator knowledge that was never formally recorded.
Custom punches, inserts, forms, sensors, or wear components may need to be recreated before reliable production can begin.
Production may restart without a practical way to confirm that critical features are within tolerance.
A change in temper, thickness, supplier, coating, or mechanical properties can create springback, cracking, burr, or forming problems.
Cutting clearance, punch wear, die damage, or misalignment may be causing edge-condition or assembly issues.
The prior source may have relied on undocumented setup adjustments, handwork, or inspection practices to keep the program running.
Corrosion, storage damage, contamination, degraded springs, or missing records may affect restart readiness.
Gromax reviews the current drawing, annual volume, material, finish, production history, quality concerns, and reason for transfer.
The die is examined for wear, damage, missing details, setup requirements, safety concerns, and signs of prior repair or modification.
The die design, sample parts, gages, and documentation are checked against the latest approved part requirements.
The review may result in a recommendation for cleaning, sharpening, component replacement, die repair, sensor updates, ECN changes, partial rebuild, or full replacement.
When practical, the tool is set and sampled to evaluate feed, forming, burr, dimensional performance, scrap flow, and part handling.
First article inspection, capability studies, PPAP, gage correlation, material certification, plating validation, or customer-specific documentation are defined before release.
Setup information, maintenance needs, spare components, inspection methods, and process controls are documented for repeat production.
• Current part drawing and revision
• Tool photographs
• Die layout or strip layout, if available
• Last production date
• Annual volume and program life
• Material, thickness, and temper
• Press and feed requirements
• Tooling maintenance history
• Sample parts and inspection reports
• Known quality or delivery issues
• Existing gages and fixtures
• Tool ownership information
• Required PPAP, FAI, or validation documents
• Target restart or transfer date
To comply with ITAR, DFARS, and applicable U.S. export control regulations, Gromax does not display actual customer parts, drawings, specifications, or technical data in public-facing materials.
Images shown are illustrative only and are used to represent Gromax’s design and manufacturing capabilities. They do not contain proprietary, controlled, or export-restricted information.