RFQ
Metal additive manufacturing application visual
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Solution

Metal additive manufacturing post-processing: from near-net shape to engineering-grade performance

The AM pathway connects pore closure, fatigue-performance improvement, shorter outsourced lead times, heat treatment, inspection, and quality traceability into one complete post-processing route.

Residual Porosity

Internal pores in metal AM components can reduce fatigue life, fracture toughness, and batch consistency.

HIP Densification

High temperature and isostatic gas pressure close internal defects and can move material performance toward a fully dense benchmark. ASTM F3301 is a common reference for metal AM thermal post-processing.

HIP + Heat Treatment

Integrating rapid cooling, solution treatment, or aging objectives can reduce separate cycles, transfers, and repeated heating.

Traceable Production

Pressure, temperature, time, alarm, recipe, and operator records can support qualification and audit evidence for aerospace, medical, and other critical components.

Inspection Feedback Loop

Industrial CT, metallography, density, tensile, and fatigue results are correlated with batch data to refine a reusable process window. ASTM E1441 and E1570 may inform CT practice.

Bring HIP In-House

An internal HIP capability can shorten queues and protect critical process parameters as AM volumes grow or delivery schedules tighten.

Process ComparisonIsostatic Pressure Distribution and Controlled Cooling Path
Comparison between isostatic pressure and uniaxial pressing
Density logic

Workflow

Connect printing, powder removal, HIP, rapid cooling, and inspection into an auditable batch pathway.

This pathway helps AM service providers, aerospace manufacturers, and medical-implant teams evaluate an in-house HIP capability and define qualification targets for porosity, fatigue life, CT acceptance criteria, and batch yield.

PrintPowder Removal & CleaningLoad PreparationHIPURC, URQ, or Heat TreatmentInspection & Release
Learn about HPHT / URC / URQ
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