Mould designing services that turn a part design into precision tooling — core and cavity layout, cooling, ejection, and flow simulation engineered so the first shot off the tool is a good one.
Core to Cavity
FULL TOOLING DESIGN
8
MOULD DESIGN SERVICES
Flow-Simulated
BEFORE FIRST SHOT
Test-Linked
DESIGN + VALIDATION IN-HOUSE
Why It Matters
A great part design can still fail in production if the tooling behind it wasn’t engineered right. Mould designing services translate a finished part into precision tooling — core and cavity layout, gate and runner placement, cooling channel routing, and ejection system design — so the mould fills evenly, cools efficiently, and ejects cleanly, shot after shot. Get this stage wrong, and you inherit warped parts, sink marks, and costly tool rework months into production.
At Kiyo R&D Lab, our mould designing services cover core & cavity design, gate & runner design, cooling channel design, ejection system design, mould flow simulation, and shrinkage/warpage compensation — for injection-moulded automotive components where dimensional accuracy and cycle time both matter.
Because mould design and part design go hand in hand, this service pairs naturally with our product designing services for the part itself, and flows directly into our accredited testing network once tooling is ready — mechanical properties testing for structural strength, electrical properties testing for insulation safety, thermal accelerated properties testing for heat durability, chemical corrosion properties testing for rust resistance, degradation properties testing for long-term weathering, painting coating properties testing for automotive finishes, our customized and customer standard testing services for OEM-specific requirements, and full product validation testing for production sign-off — all coordinated through our material testing laboratory.
Our Services
Eight capabilities carrying a part design into precision, production-ready tooling
Tool halves engineered to form the exact part geometry with correct parting lines.
Melt flow path positioned and sized to fill the cavity evenly without defects.
Channel routing optimized for uniform cooling and shorter cycle times.
Pin and plate layout designed for clean, mark-free part release every cycle.
Fill, pack, and warpage behavior modeled before a single tool is cut.
Tool geometry pre-adjusted so the cooled part lands within tolerance.
Part geometry reviewed early so it’s actually moldable at production scale.
First-shot samples reviewed and linked directly into our testing lab.
Process
From part geometry to a validated, production-ready tool
Geometry checked for moldability
Fill and cooling behavior modeled
Tool structure designed in detail
Cycle time and release optimized
Full design checked before cutting steel
First shots reviewed and approved
Design Discipline
Principles built into every mould we design for automotive components
| Design Consideration | What We Apply | Typical Benefit |
|---|---|---|
| Draft Angle Guidelines | Wall surfaces angled correctly for clean part release | No drag marks or ejection damage |
| Wall Thickness Uniformity | Section thickness balanced to avoid uneven cooling | Fewer sink marks and warping |
| Gate Location Optimization | Gate placed to balance flow and minimize weld lines | Stronger, more cosmetic part surfaces |
| Cooling Time Reduction | Channel layout tuned to shorten cycle time | Lower part cost at production volume |
| Tolerance & Shrinkage Allowance | Material-specific shrinkage factored into tool dimensions | Parts land within spec on first trial |
Final tooling approval and production release remain the responsibility of your engineering and quality teams.
Applications
Automotive programs that rely on our mould designing services for injection-moulded components
Locations
Our primary facility, offering mould designing services alongside our accredited testing infrastructure for a seamless tooling-to-validation workflow.
Positioned in Chennai’s automotive manufacturing corridor, close to OEMs and Tier-1 suppliers running tooling programs.
Share your part geometry — our mould designing services team responds within 24 hours.
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FAQ
They cover core and cavity layout, gate and runner design, cooling channel routing, ejection system design, mould flow simulation, and shrinkage/warpage compensation — turning a finished part design into tooling that produces consistent, defect-free parts.
Simulation reveals fill imbalance, air traps, and likely warpage before any metal is machined — catching problems on screen is far cheaper than discovering them in a finished, expensive tool.
Both. Once first-shot samples come off the tool, they can move directly into our accredited testing network — mechanical, thermal, chemical, or full validation testing for production sign-off — without switching vendors.
Timeline depends on part complexity and cavity count — a simple single-cavity tool design can be turned around faster, while a complex multi-cavity family mould takes longer to design and simulate. We’ll confirm an exact timeline once we review your part geometry.
Get mould designing services from a team that designs and tests under one roof.