Creo Mold empowers manufacturing enterprises to engineer injection molds directly from native 3D CAD part geometry. PTC’s tooling toolset enables design for manufacturability (DFM) verification, automated parting direction/draft analysis, complex parting surface generation, core/cavity insert splitting, full mold base detailing, and downstream manufacturing (CAM/CNC) data
Powered by fully associative parametric architecture, Creo Tool Design maintains a bi-directional link with the original part model. Any engineering change order (ECO) or part modification automatically propagates across parting surfaces, core/cavity inserts, standard components, and production drawings—eliminating rework and manufacturing delays. preparation.
Enterprises can implement modular extensions individually or combine them to establish an end-to-end, automated mold development lifecycle.




Nhu cầu | Giải pháp phù hợp |
Parting Surface Generation & Core/Cavity Extraction | Creo Tool Design Extension |
Complete Mold Base & Standard Component Detailing | Creo Expert Moldbase |
Plastic Injection Flow & Defect Simulation | Creo Mold Analysis |
All-in-One Synchronized Product & Mold Lifecycle | Creo Injection Molding Suite |
The optimal configuration should be selected based on mold tool complexity, multi-cavity layout, existing engineering workflow, and the number of concurrent CAD/CAM seats.






Creo Mold is the collective name for PTC’s specialized modular suite—including Creo Tool Design (TDO), Creo Expert Moldbase (EMX), and Creo Mold Analysis (CMA)—dedicated to injection mold engineering, flow simulation, and tooling automation within PTC Creo
It specializes in core/cavity splitting, associative parting surface creation, shrinkage compensation, draft verification, and extracting mold components directly from 3D part geometry.
While Tool Design focuses on geometry splitting and core/cavity insert generation, Expert Moldbase (EMX) automates the entire mechanical mold base structure—integrating standard component libraries (plates, ejectors, cooling circuits, sliders) and automated 2D tooling drawings.
CMA predicts potential manufacturing defects such as short shots (incomplete filling), weld/meld lines, air traps, sink marks, high clamping tonnage requirements, and non-uniform cooling gradients before tooling fabrication.