Titanium Parts Quality & Standards — AS9100 / ASTM / NDT
AS9100D, ISO 13485, Nadcap, ASTM B348 / B265 / F136, MTR, CoC, FAI, dimensional inspection, surface finish measurement, and non-destructive testing for titanium parts.
18 articles in this cluster
Why this matters
For aerospace, medical, and defense buyers, "compliant" is a binary check that gates the entire shipment. A Mill Test Report must trace back to the original ingot heat; a First Article Inspection report must reference the right revision; an F136 implant part must pass both biocompatibility documentation and surface-finish validation. This cluster consolidates the standards, inspection methods, and traceability documentation our QA team issues with every shipment.
All 18 articles in this cluster
5-Year CMM Total Cost of Ownership for Aerospace Machining Startups
An engineering cost analysis of owning a coordinate measuring machine over five years for an aerospace machining startup. Covers CAPEX vs OPEX split, calibration cycles, software seats, metrology room readiness, and the operating-cost items that compound over time.
AS9100 Certified Titanium Machining: Quality Auditing and Traceability Standards
A quality engineering guide to AS9100 certification as it applies to titanium machining suppliers. Covers the AS9100D revision structure, audit findings common to machining shops, traceability chain requirements, and procurement rules for qualifying an AS9100 titanium supplier.
ASME SB348 vs ASTM B348: Titanium Bar Standards for Pressure Vessels
A specification comparison of ASME SB348 and ASTM B348 for titanium bar stock. Covers BPVC adoption mechanics, ASME QSC requirements, code-stamp implications, and procurement rules for pressure vessel, heat exchanger, and nuclear applications.
How to Read a Titanium Mill Test Report (MTR) — Field-by-Field Guide
A quality engineer's 5-step procedure for validating a titanium Mill Test Report (MTR): heat-lot / VAR-ingot traceability, chemistry vs specification, mechanical properties vs specification, EN 10204 inspection-certificate type, and sign-off. Includes real MTR field-value examples for Grade 2 / Grade 5 / Grade 23.
AMS 4943 vs AMS 4944: What's the Difference?
A technical comparison of AMS 4943 and AMS 4944 titanium sheet and strip specifications. Covers chemistry, mechanical properties, heat treatment, procurement implications, and when to specify each standard.
ASTM B338 Titanium Tubing Standard Explained
A technical explanation of ASTM B338 — the standard specification for seamless and welded titanium tubing for condensers, heat exchangers, and process equipment. Covers grades, wall thickness, testing, and procurement rules.
ASTM B348 Explained: Titanium and Titanium Alloy Bars and Billets
A technical explanation of ASTM B348 — the standard specification for titanium and titanium alloy bars and billets. Covers grade scope, mechanical property requirements, testing and certification, procurement rules, and when to specify ASTM B348 over ASTM B265 or AMS specifications.
ASTM B381 Explained: Titanium and Titanium Alloy Forgings
A technical explanation of ASTM B381 — the standard specification for titanium and titanium alloy forgings. Covers forging classes, mechanical properties, heat treatment, inspection requirements, and procurement guidance for aerospace and industrial applications.
ASTM B861 Explained: Titanium and Titanium Alloy Seamless Pipe
A technical explanation of ASTM B861 — the standard specification for seamless titanium and titanium alloy pipe. Covers size ranges, schedules, grades, testing, and procurement rules for pressure piping systems.
ASTM F136 Explained: Ti-6Al-4V ELI Standard for Surgical Implants
A technical guide to ASTM F136 — the governing standard for Ti-6Al-4V ELI wrought titanium for surgical implant applications. Chemical composition limits, mechanical property requirements, microstructure specifications, certification and traceability requirements, and practical procurement implications for medical device manufacturers.
ASTM F86 Passivation: Surface Treatment Requirements for Titanium
A technical explanation of ASTM F86 passivation for titanium and titanium alloy implant and industrial components. Covers surface preparation, passivation chemistry, testing, common pitfalls, and procurement guidance.
ISO 5832-3 vs ASTM F136: Titanium Material Standards for Surgical Implants Compared
A technical comparison of ISO 5832-3 and ASTM F136 — the two governing material standards for Ti-6Al-4V ELI used in surgical implants. Composition and property differences, regulatory acceptance in Europe, the United States, and other markets, certification requirements under each standard, and practical guidance for procurement teams sourcing material for global medical device manufacturing.
MIL-STD-278 and Titanium Welded Assemblies: What Manufacturers Need to Know
A technical guide to MIL-STD-278 welding requirements as applied to titanium assemblies. Covers qualification, procedure specifications, inspection, common failure modes, and procurement implications for defense and marine applications.
AS9100D for Titanium CNC Manufacturing — What It Means for Aerospace Quality
An engineering assessment of AS9100D certification for titanium CNC machining suppliers — the quality management system requirements that affect aerospace component procurement, what AS9100D certification demonstrates about process control capability, and practical considerations for buyers evaluating certified suppliers.
ASTM B348 vs ASTM B265 — Understanding Titanium Bar and Plate Material Standards
A technical comparison of ASTM B348 (titanium bar and billet) and ASTM B265 (titanium sheet, plate, and strip) material standards — product form coverage, mechanical property requirements by grade, testing and certification requirements, and practical implications for material selection.
NADCAP Certification for Titanium Processing — What It Covers and Why It Matters
An engineering assessment of NADCAP certification for titanium manufacturing processes — the scope of NADCAP accreditation for machining, heat treatment, surface treatment, and NDE, the audit process and requirements, and the significance of NADCAP certification for aerospace supplier qualification.
Titanium Material Certification and Traceability Guide for Aerospace Components
An engineering guide to titanium material certification and traceability for aerospace manufacturing — mill test report requirements, heat number traceability systems, EN 10204 certification types, and practical considerations for maintaining traceability through machining and inspection operations.
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Founded in 2011 in Baoji's Titanium Valley, BOZE Metal is dedicated exclusively to titanium — from raw material to precision engineering. AS9100D, ISO 13485 & ISO 9001 certified with 500+ clients across Aerospace, Medical & Motorsport industries, we deliver end-to-end precision titanium CNC machining with full material traceability from source to component.
Boze Titanium Manufacturing Center is operated by Baoji Boze Metal Products Co., Ltd.
Certifications verified by NADCAP and compliant with ASTM International titanium standards (B265, B348, B381, F136, F2924) and ISO 13485 medical-device QMS.