Titanium Metal Powder Suppliers

Titanium powder producers offer specialty fine particle size metal feedstocks enabling fabrication of aerospace, medical, automotive, and consumer components via additive manufacturing as well as powder metallurgy consolidation. This article compares major global titanium metal powder suppliers across characteristics like location, grades, production capacity, prices, and quality certifications.

Overview of titanium metal powder suppliers

Pure titanium powders containing over 99% titanium have excellent strength-to-weight ratios, corrosion resistance, biocompatibility, high melting point, and hardness values making them suitable for demanding applications across industries.

Alloying elements like aluminum, vanadium, molybdenum, zirconium, tin, niobium, tantalum, and silicon are added to further augment properties for niche performance requirements.

Common titanium powder grades include:

• CP (Commercially Pure) Titanium
• Ti-6Al-4V – Aerospace grade
• Ti-6Al-7Nb – Biomedical grade
• Ti-55531 – High temperature alloy
• Ti-1023 – Heavy metal alloy

These powders spanning 1 to 150 microns size ranges are used across:

• Additive manufacturing
• Metal injection molding
• Press and sinter near-net shape fabrication
• Powder forged components
• Thermal spray coatings
• Pyrotechnics and ordnance
• Powder metallurgy consumables

Top 10 Titanium Powder Manufacturers

Leading global producers of CP titanium, Ti-6-4, and other titanium alloy powders are concentrated across the Americas, Europe, China, India and Japan.

Manufacturer	Headquarters	Capacity (Tons/Year)	Production Methods
ATI Powder Metals	US	5000	Hydride-dehydride (HDH), Gas atomization
Tekna	Canada	1000	Plasma atomization
Metalysis	UK	20000	Electrolysis
Dow Titanium	US/Europe	30000	Sodium reduction, HDH
OSAKA Titanium Technologies	Japan	5000	HDH, Electron beam melting
AP&C	Canada	75000	HDH
CRISTAL	France	10000	Sodium process
VSMPO	Russia	10000	HDH
Puris	US	2000	Sodium reduction
Toho Titanium	Japan	15000	Magnesium thermal reduction

These prominent suppliers offer most common titanium grades but also develop custom alloys and particle characteristics to meet user application requirements.

USA Titanium Powder Manufacturers

The United States produces over 15% of global titanium feedstock materials leveraging domestic aerospace, medical, defense, and automotive sector demand. Aside from large established corporations, a cottage industry of small and mid-sized North American vendors also exists.

Major USA firms

Company	Location	Details
ATI Powder Metals	Pennsylvania	Broadest titanium powder producer globally both in grades and tonnage. Aerospace leader.
Puris	California	Specializes in titanium, zirconium, hafnium ultrafine powders for electronics and specialty alloys.
Dow Titanium	Illinois/Pennsylvania	High volume commoditized CP titanium and Ti-6-4 powders. Aerospace and industrial focus.
Valimet	Michigan	Producer of HDH titanium and superalloy powders.
Carpenter Technology	Pennsylvania	Leading USA alloy manufacturer providing specialty titanium grades.

Other USA titanium suppliers include Strem Chemicals, Edge Metal, Commercial Metals Company, Nu-Tek Innovations, Metraco, and several metal 3D printing service bureaus with powder inventory.

Pricing estimate: $50-500 per kg based on purity, chemistry, particle characteristics, distribution consistency, volumes purchased and available supply chain margins.

Chinese Titanium Powder Manufacturers

China has a rapidly growing domestic aerospace sector coupled with strong export demands which propelled several titanium powder producers to emerge over the past decade.

Major Chinese companies

Company	Location	Details
Western BaoDehang	Baoji City	Major CP titanium and Ti-6-4 provider from Northwest region aerospace hub. Export focus.
Western Superconductor Technologies	Xi’an City	Titanium and superalloy powders for medical and aviation applications.
Northwest Institute for Non-Ferrous Metal Research	Xi’an City	R&D on new titanium alloys and powder production methods.
Baoji Haoxin Titanium Industry	Baoji City	Mid-sized producer of titanium powder for automotive and chemical uses.
Luoyang Kewei Aerospace Technology	Luoyang	Specialist in titanium alloy microspheroidization powders.

Additional players are emerging as China ramps investment in metal AM powder capacity to serve growing domestic demand. Joint ventures with European and American firms are also underway providing technology transfers.

Pricing estimate: $30-150 per kg – Over 50% lower than US and EU prices for standard CP titanium and Ti alloy options.

European Titanium Powder Companies

Europe’s strong aerospace legacy combined with pioneering efforts in metal additive techniques supported a vibrant ecosystem of regional titanium powder manufacturers.

Key European firms

Company	Country	Details
AP&C	Canada	Global leader in clean spherical titanium powders up to 150 tons/year capacity after acquisition by GE Additive.
Metalysis	UK	Breakthrough electrolysis production method yields 20k tons/year titanium, tantalum and specialty alloy potential. Lower prices.
TLS Technik GmbH	Germany	Major provider of titanium and nickel powders for 15 years across European markets.
Powder Alloy Corporation	Russia	Rosatom subsidiary offering cost competitive titanium alloys serving Asian and CIS regions.
Praxair	Several	Established producer of common titanium grades especially for thermal spray niche uses.

Additional companies like LPW Technology, Indo-US MIM Tec Pvt., Supra Alloys Inc., and PyroGenesis offer more regional targets or custom titanium development services.

Pricing estimate: $70-300 per kg for small batch CP titanium or Ti-6Al-4V.

Critical Supplier Selection Criteria

Choosing suitable titanium powder sources depends on several aspects:

Technical factors

• Chemistry – Grade and composition within allowed elemental limits
• Particle size distribution consistency
• Morphology – Sphericity, satellite fractions, texture
• Apparent/tap density uniformity
• Flow rate, moisture limits, layer uniformity

Commercial considerations

• Price per kg – Dictated by tier, purity and logistics
• Minimum order quantities
• Custom alloy flexibility
• Lead times and availability
• Packaging and shelf life guarantees

Company qualifications

• Time in business and production capacity
• Quality certifications – ISO 9001, AS9100, etc.
• Testing capabilities and reports
• Safety, sustainability and compliance record

Application demands

• Printer, powder bed, spray compatibility
• Part performance requirements
• Mechanical properties targets
• Testing correlations to properties

Carefully qualifying powder against credibility, cost, consistency and suitability metrics minimizes downstream manufacturing risks.

Industry Quality Standards

Titanium powders for commercial aerospace, medical, automotive and regulated uses require certification demonstrating compliance to governing specifications.

Standard	Materials Covered	Requirements
ASTM B849	Titanium and titanium alloy powders	Chemistry, particle size analysis, sampling, inspection
AMS 4200	Titanium alloy powders	Contamination limits, particle analysis, tap density, morphology
ISO 23301	Metallic powders including titanium	Sieving, sampling, particle shape, hall flow rate method

Common test methods include:

• Chemical analysis – ICP, GDMS, Combustion
• Metallography – Microstructure
• Particle size distribution – Laser diffraction
• Apparent/tap density – Hall flowmeter
• Powder morphology – SEM imaging

Reputable global titanium powder suppliers provide lot traceability and test reports documenting quality adherence as well as scope for customer witnessing or split sampling.

Comparing Titanium Powder Manufacturers

Company	Price Range	Grades Offered	Quality Certifications
ATI Powder Metals	$$$$$	Most alloys	ISO 9001, AS9100D, ISO 13485
Tekna	$$$$	CP Ti, Ti-6-4, Ti-6-7	ISO 9001:2015
Metalysis	$$	CP Ti, Ti alloy R&D	ISO 9001, ISO 14001, OHSAS 18001
Dow Titanium	$$$	CP grades	ISO 9001:2008
AP&C	$$$$	Ti-6-4 and emerging alloys	ISO 9001:2015, AS9100D, ISO 13485:2016
Toho Titanium	$$	CP grades and Ti-Al, Ti-Mn	ISO 9001
Puris	$$$	Ultrafine CP grades	ISO 9001:2015

Guideline – More controlled chemistry, cleaner particle characteristics, broader alloy offerings, and comprehensive certification warrant higher pricing. Medical and aerospace sectors attract premiums for high purity while industrial uses utilize more cost competitive options.

FAQ

Q: How is titanium powder manufactured?

A: Most large scale titanium powder derives from sponge fines or hydride-dehydride (HDH) methods while small batch specialized powders employ plasma atomization or electrolysis techniques. Each enables tailored powder size distributions, shapes and purity levels.

Q: What are the main differences between Ti-6Al-4V grades from different suppliers?

A: Minor variations in impurity limits, microstructure from thermal history, distribution percentiles, morphologies from different atomization mediums, available size ranges and testing breadth account for considerable grade variability between producers claiming Ti-6-4 chemistry. Understanding subtler differences is vital.

Q: How much does titanium powder for 3D printing cost?

A: Expect to pay $90-220 per kg for common grades like CP Ti Grade 2 and Ti-6Al-4V ELI intended for additive manufacturing over standard industrial varieties. Processing method, distribution yield, order volume, regional logistics and downstream margins differentiate pricing.

Q: What companies offer titanium powder recycling services?

A: Limited recycling exists today but growing powder reuse efforts from companies like Titanium Powder Recycling Initiative from GE Additive, 6K Additive, PyroGenesis Additive, Mutrec and Titanium Recycling Technology show promise for reintroducing affordable powders back into printers or PIM feeds.

know more 3D printing processes

Frequently Asked Questions (FAQ)

1) What should I request on a Certificate of Analysis (CoA) from Titanium Metal Powder suppliers?

• Include full chemistry (incl. O/N/H by IGF), PSD D10/D50/D90, apparent/tap density, Hall/Carney flow, SEM morphology set with satellite index, moisture, residual chloride/Mg (if sponge-derived), and lot genealogy.

2) How do atomization routes affect titanium powder quality and price?

• EIGA/VIGA gas atomization yields highly spherical, low‑O powders ideal for LPBF/EBM; PREP/plasma offer ultra-clean but costlier feedstock; HDH is economical, angular, higher O—suited for HIP/press‑sinter more than LPBF.

3) What are typical price bands in 2025 for AM‑grade titanium powders?

• Indicative ranges: CP Ti G2 ~$140–$240/kg; Ti‑6Al‑4V (Grade 5/23) ~$200–$350/kg. Region, cut yield, cleanliness, and certifications (AS9100, ISO 13485) drive variance.

4) How can buyers compare Titanium Metal Powder suppliers beyond price?

• Benchmark on PSD consistency (lot-to-lot delta), O/N/H drift during reuse, satellite content, flow stability after conditioning, on-time delivery, traceability depth, and support (parameter guidance, failure analysis).

5) What standards are most relevant when sourcing titanium powder for regulated sectors?

• ASTM B348/B348M context for chemistry, ASTM F2924/F3001 for AM Ti‑6Al‑4V, ISO/ASTM 52907 for AM feedstock requirements, ASTM E1447/E1019 for H/N/O testing, and quality systems like AS9100, ISO 13485.

2025 Industry Trends

• Traceability-by-design: End‑to‑end genealogy from sponge lot to atomization batch to AM build becomes standard in aerospace/medical RFQs.
• Ultra‑low interstitial grades: Wider availability of ELI cuts (O ≤0.13 wt%) for thin‑wall lattices and implants.
• Regional diversification: Capacity expansions outside sanctioned regions to de‑risk supply; more local stocking hubs with VMI/consignment.
• Sustainability signals: EPDs, argon recovery, and powder take‑back/reconditioning programs increasingly influence supplier selection.
• Short‑wavelength LPBF adoption: Green/blue laser platforms expand practical applications for high‑conductivity Ti alloys and Cu‑Ti hybrids, impacting powder specs.

2025 Snapshot: Titanium Metal Powder Supplier Benchmarks

Metric (2025e)	Typical Value/Range	Notes/Source
AM‑grade Ti‑6Al‑4V oxygen	≤0.15 wt% (≤0.13 wt% ELI)	ISO/ASTM 52907; supplier CoAs
Common LPBF PSD (Ti)	D10 15–20 µm; D50 25–35 µm; D90 40–50 µm	ISO/ASTM 52907
As‑built density (optimized)	≥99.5%	CT/Archimedes
HIPed density (critical)	≥99.9%	Aerospace/medical
Price bands (CP G2 / Ti64)	~$140–$240 / ~$200–$350 per kg	Market 2024–2025
Lead time (stocked vs. custom)	1–3 weeks / 6–12 weeks	Region, certification
Reuse cycles (managed)	6–12 cycles	Governed by O/N/H and PSD drift

Authoritative sources:

• ISO/ASTM 52907 (AM feedstock), ASTM F2924/F3001 (Ti‑6Al‑4V AM): https://www.iso.org, https://www.astm.org
• ASM International (Powder Metallurgy, AM handbooks): https://www.asminternational.org
• NIST AM resources: https://www.nist.gov
• NFPA 484 (combustible metals) and ATEX/IECEx for handling

Latest Research Cases

Case Study 1: Dual‑Sourcing Ti‑6Al‑4V With Data‑Equivalent Performance (2025)

• Background: An aerospace tier‑1 needed a second Titanium Metal Powder supplier without requalifying entire parts.
• Solution: Implemented a data package alignment: matched PSD percentiles, O/N/H, satellite index, and flow; executed CT density, tensile/fatigue, and fractography equivalence on standard coupons and a geometry‑of‑record; established SPC gates and VMI.
• Results: Mechanical equivalence within ±3% UTS/YS and ±5% HCF life; first‑pass yield unchanged; supply risk reduced (on‑time delivery +12%); unit powder cost −6%.

Case Study 2: ELI Powder for Thin‑Wall Implants With Controlled Reuse (2024/2025)

• Background: A medical OEM observed fatigue scatter tied to powder reuse across lots.
• Solution: Set exposure‑hour logging, 25% virgin blending, interstitial SPC, and sieve control; required data‑rich CoAs from suppliers; HIP + surface etch maintained osseointegration.
• Results: Oxygen stabilized at 0.10–0.12 wt%; lattice HCF life +20%; dimensional CpK improved 1.2 → 1.6; lot release cycle time −30%.

Expert Opinions

• Prof. Iain Todd, Professor of Metallurgy and Materials Processing, University of Sheffield
• Viewpoint: “Powder cleanliness—especially interstitials and halide residues—defines the upper bound of AM performance more than any single machine parameter.”
• Dr. John A. Slotwinski, Additive Manufacturing Metrology Expert (former NIST)
• Viewpoint: “Supplier genealogy and data‑rich CoAs are now primary evidence for repeatability claims in regulated sectors.”
• Dr. Sophia Chen, Senior Materials Scientist, Materion
• Viewpoint: “EIGA/VIGA titanium powders provide the flow and cleanliness needed for thin‑wall lattices while meeting stringent medical and aerospace limits.”

Practical Tools/Resources

• Standards: ISO/ASTM 52907 (feedstock); ASTM F2924/F3001 (AM Ti‑6Al‑4V); ASTM E1447/E1019 (H/N/O)
• Supplier due diligence: AS9100 and ISO 13485 certification checks; audit templates from aerospace primes; PPAP/FAI guidance
• Metrology: Laser diffraction (PSD), SEM/EDS (morphology/cleanliness), IGF (O/N/H), Hall/Carney flow, micro‑CT (porosity)
• Procurement aids: NIST AM‑Bench datasets; Metal‑AM.com supplier directories; USGS commodity summaries for Ti markets
• Safety/handling: NFPA 484; ATEX/IECEx zoning; inert handling SOPs and Class D fire response

Implementation tips:

• Specify CoAs with chemistry (incl. O/N/H), D10/D50/D90, flow and density metrics, SEM images with satellite index, moisture, and lot genealogy.
• Match atomization route to end‑use: EIGA/VIGA for LPBF/EBM; PREP for ultra‑clean needs; HDH for HIP/press‑sinter billets.
• Define reuse limits by measured drift (O/N/H, flow, PSD) rather than fixed cycles; validate with CT and fatigue coupons.
• Consider total landed cost: include yield to target cut, lead time, VMI/consignment options, and supplier technical support in TCO models.

Last updated: 2025-10-13
Changelog: Added 5-question buyer-focused FAQ, 2025 KPI table for supplier benchmarking, two qualification case studies, expert viewpoints, and practical tools/resources with implementation tips for sourcing Titanium Metal Powder
Next review date & triggers: 2026-04-20 or earlier if ISO/ASTM standards update, major supply-chain/geopolitical changes affect titanium availability, or suppliers adopt new data-rich CoA/genealogy requirements