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Titanium Metal Powder [Dry]

    • Product Name Titanium Metal Powder [Dry]
    • Alias titanium-metal-powder-dry
    • Einecs 231-142-3
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    659779

    Product Name Titanium Metal Powder [Dry]
    Chemical Formula Ti
    Appearance Gray metallic powder
    Molar Mass 47.87 g/mol
    Purity Typically ≥99%
    Density 4.5 g/cm³
    Melting Point 1668°C
    Boiling Point 3287°C
    Particle Size Varies, often 10-100 microns
    Solubility In Water Insoluble
    Odor Odorless
    Flammability Highly flammable when finely divided
    Magnetic Properties Paramagnetic
    Cas Number 7440-32-6
    Storage Conditions Store in a cool, dry place

    As an accredited Titanium Metal Powder [Dry] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Titanium Metal Powder [Dry], 500g, is packaged in a sealed, high-density polyethylene bottle with a secure, tamper-evident screw cap.
    Shipping Titanium Metal Powder [Dry] must be shipped in tightly sealed, moisture-proof containers to prevent contamination and oxidation. It should be clearly labeled, protected from sparks or open flames, and handled as a flammable solid under UN 2546. Store and transport in cool, dry conditions, following all applicable local and international regulations.
    Storage Titanium Metal Powder [Dry] should be stored in a tightly sealed container in a cool, dry, and well-ventilated area away from moisture, heat, sources of ignition, and incompatible substances such as strong oxidizers and acids. Protect from physical damage and avoid dust accumulation. Ensure proper labeling and grounding to prevent static discharge, and follow all local regulations for storage.
    Application of Titanium Metal Powder [Dry]

    Applications of Titanium Metal Powder [Dry] in Industrial Manufacturing

    As a direct manufacturer of dry titanium metal powder, we support clients across multiple advanced manufacturing sectors. Our focus is on downstream pathways where precise composition, control of particle characteristics, regulatory compliance, and process integration are critical to the success of the end application. Below, we detail dedicated industrial uses where our material serves as an essential input, including information on standards adhered to, typical dosage ranges, stage of process incorporation, and the nature of finished products within each domain.

    1. Additive Manufacturing & 3D Printing of Metal Components

    Powder metallurgy and 3D metal printing industries select titanium metal powder for fabrication of aerospace, automotive, and medical structures requiring precision, strength, and low weight. Manufacturers prioritize consistent powder morphology and strict oxygen and moisture control due to sensitivity in powder bed fusion and directed energy deposition processes. Dosage depends on part geometry and printer setup, with usage rates modulated according to build density requirements and component volume.

    Industry compliance standards

    • ASTM F2924 (Additive Manufacturing of Ti-6Al-4V using Powder Bed Fusion)
    • ASTM F3001 (Ti-6Al-4V ELI for Medical Additive Manufacturing)
    • AMS 4999 (Aerospace Titanium Alloy Powder for AM)
    • ISO/ASTM 52907 (Feedstock materials — Metal powders for AM)

    Typical usage ratio

    • Direct 1:1 material-to-part conversion; actual usage 100% powder input per batch, with ~95-98% powder consumption per build, adjusted for reusability protocols and overspray collection.

    Downstream process integration

    • Powder loaded into print hoppers or build tanks after sieving and dehumidification; directly processed via selective laser melting (SLM), electron beam melting (EBM), or binder jetting equipment; post-print excess powder reclaimed and reprocessed subject to oxygen and particle size control.

    Final product types

    • Lightweight aerospace brackets and housings
    • Medical device implants (orthopedic, dental)
    • Automotive structural and performance parts
    • Customized tooling and high-stress industrial components

    2. Powder Metallurgy for Aerospace and High-Performance Engineering

    Aerospace and defense manufacturers utilize titanium powder in sintering and hot isostatic pressing (HIP) to produce near-net or net-shape components that must maintain mechanical integrity at extreme conditions. Strict alloy composition and minimal contamination remain essential across production to meet stringent certification and airworthiness documentation requirements. The input ratio is tailored per part density specifications and part geometry, with powder blending undertaken to achieve customized alloy grades.

    Industry compliance standards

    • AMS 4998 (Powder Metallurgy Titanium Alloys for Aerospace)
    • EN 9100/AS9100 (Aerospace QMS Requirements)
    • ISO 9001 (Quality Management System)
    • NADCAP (Special Process Accreditation—HIP, Heat Treatment)

    Typical usage ratio

    • 75–100% powder charge per mold or die cavity, modulated for target density; excess recovered for subsequent sintering cycles; blended with alloying agents up to 25% where specified.

    Downstream process integration

    • Material charged into die sets or HIP vessels; compaction under controlled temperature and pressure; subsequent heat treatment and finishing as per component design; rigorous batch tracing maintained from powder input to final part.

    Final product types

    • Jet engine compressor disks and blades
    • Aircraft structural fittings and fasteners
    • Defense vehicle armor components
    • High-thermal-resistance housings for satellites

    3. Automotive Powder Forging & High-Efficiency Engine Components

    Automotive Tier 1 and OEM suppliers introduce titanium powder to reduce mass and boost fatigue resistance in critical drivetrain, chassis, and suspension parts. The powder’s purity and flowability directly impact molding and die-fill consistency, affecting mechanical properties in powder-forged gears and connecting rods. Usage ratio is defined by target porosity and surface finish, and production lines generally recirculate up to 10% reclaimed powder per cycle after quality checks.

    Industry compliance standards

    • IATF 16949 (Automotive QMS)
    • SAE J938/ASTM B783 (Powder-Forged Titanium Components)
    • ISO 14001 (Environmental Management in Metal Shaping)

    Typical usage ratio

    • Initial charge 100% powder by component volume; 90–95% net conversion in closed-die forging; reclaimed unsintered material reintroduced subject to chemical and particle-size monitoring.

    Downstream process integration

    • Powder filled into steel dies for preform compaction; pressure/heat applied in forging or hot compaction; secondary machining and quality inspection before assembly line delivery.

    Final product types

    • Transmission and differential gears
    • Engine connecting rods
    • Lightweight wheel hubs
    • Performance piston pins and drive shafts

    4. Medical Implant Fabrication and Surgical Tools Manufacturing

    Medical device companies depend on high-purity titanium powder for fabricating permanent implants and precision surgical tools via compaction and sintering, especially where customized shapes and biocompatibility are mandatory. Powder is processed under cleanroom protocols, with detailed documentation from lot-level to device shipment. Ratio of metal powder to additive agents strictly adheres to end-user clinical requirements, with fine-tuning as per implant porosity or surface roughness for osteointegration.

    Industry compliance standards

    • ISO 13485 (Medical Device QMS)
    • ASTM F67 & F1580 (Unalloyed and Alloyed Titanium for Surgical Implants)
    • FDA 21 CFR 820 (Medical Device GMP—USA)
    • European MDR (EU Regulation 2017/745)

    Typical usage ratio

    • 90–100% titanium powder for implant bodies; up to 10% porogenic or bioactive agents added, dependent on implant type and bone in-growth requirements.

    Downstream process integration

    • Powder weighed and mixed under GMP protocols; compacted in precision molds; sintered at predefined temperature profiles; machined or coated as per device specifications; batch identity maintained throughout manufacturing and packaging.

    Final product types

    • Hip and knee prostheses
    • Dental implant posts
    • Craniofacial reconstruction meshes
    • Orthopedic surgical cutting guides and tool shanks

    5. Thermal Spray Coatings for Industrial and Marine Equipment

    Downstream manufacturers of heavy-duty and marine equipment employ titanium powder in thermal spray and cold spray coating technologies to impart corrosion resistance and thermal barrier properties to metal substrates. Coating production lines operate under regulated conditions, with powder grain size and oxygen content critical to bond strength and coating uniformity. The material’s input ratio is established based on required coating thickness and surface area, with application rate adjusted in real-time for layer consistency.

    Industry compliance standards

    • ISO 14919 (Thermal Spraying – Feedstock Quality for Metallic & Other Inorganic Coatings)
    • ASTM C633 (Adhesion Testing of Thermal Spray Coatings)
    • DNV GL RP-C203 (Corrosion Protection for Offshore Structures)

    Typical usage ratio

    • 0.2–1.5 kg/m² substrate surface, scalable by intended coating thickness (typically 50–250 microns); actual dosage calculated per project surface specification; excess powder captured for recycling per ISO guidelines.

    Downstream process integration

    • Pre-treated substrate mounted on spray line; powder injected via high-velocity oxy-fuel (HVOF) or cold spray guns; coating built in incremental passes; post-application sintering or sealing as per coating spec and end-use environment.

    Final product types

    • Pump and valve housings for chemical processing
    • Offshore platform riser pipes
    • Marine propellers and shafts
    • Industrial roll surfaces

    6. Pyrotechnic Initiators and Specialized Metal Powders in Electronics

    Electronics and ignition device manufacturers integrate titanium metal powder in pyrotechnic initiators, spark sources, and specialized films due to its high reactivity and energy density. Quality control focuses on particle size uniformity and controlled impurity levels to ensure predictable ignition characteristics and minimal variability in pyrotechnic and microelectronic deployment devices. Input ratio hinges on the target release profile, with mixtures calibrated for burst force or controlled reaction time.

    Industry compliance standards

    • UN/ADR Test Series 6(c) (Safety Tests for Pyrotechnic Devices)
    • IEC 60086 (Primary Batteries—Inclusion for Electronic Igniters)
    • REACH Annex XVII/CLP (Regulation of Hazardous Substances)

    Typical usage ratio

    • 25–70% titanium powder within pyrotechnic or spark initiation blends; ratio determined by desired ignition temperature and device charge mass; remaining balance made up of oxidizers and binders as stipulated in process guidelines.

    Downstream process integration

    • Material dry-mixed with oxidizing agents; metered into initiator casings or film layers under antistatic protocols; device assembly completed in moisture-controlled environments to prevent premature reaction; lot QA prior to end-use shipment.

    Final product types

    • Automotive airbag initiators
    • Micro-actuation devices for aerospace applications
    • Electronic spark generators
    • Specialized capacitive discharge welding tips
    Free Quote

    Competitive Titanium Metal Powder [Dry] prices that fit your budget—flexible terms and customized quotes for every order.

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    Tel: +8615371019725

    Email: admin@sinochem-nanjing.com

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    Certification & Compliance
    More Introduction

    Titanium Metal Powder [Dry]: Precision in Every Particle

    Directly from the Manufacturer’s Floor

    Years of hands-on work in transforming titanium into usable form have taught us that nobody values consistency and quality like the teams forging, sintering, and printing with our powder. Our dry titanium metal powder arrives clean, dry, and free-flowing, sourced from top-grade sponge titanium and run through sieve analysis that meets industry standards. Makers relying on this powder know its particle size remains within a tight range, supporting applications from additive manufacturing to powder metallurgy all the way to specialist thermal spray coatings.

    Model Details, Real-World Performance

    Our flagship grade, Ti-DP40, ships with a typical particle size range under 45 microns, matching expectations for laser bed fusion, direct energy deposition, and cold spray. Every batch shows off a bright, silvery luster and carries an oxygen content below 0.15 percent, allowing for oxidation-sensitive jobs and medical grade parts. Every step, from inert gas atomization to vacuum packaging, means a clean, dry product on arrival.

    With roots in direct material manufacturing, we've shaped every production stage in-house. Many clients request custom sieve fractions, so we operate a flexible production line that manages 10–63 micron, 44 micron cut, or even specialized coarse grades for blending. Other sources may sell water-atomized products, but those often come with higher oxygen and trapped moisture. That can lead to splatter, poor flow, or inclusion defects. Our gas-atomized titanium powder avoids moisture absorption, keeping you away from pick-up or caking headaches.

    What Dry Means on Your Line

    Process engineers in high-value industries report trouble with clumping and caking any time their titanium powder arrives even a touch damp. Moisture sits in the crevices between particles and fines, binding powder and raising risk of contamination. Dry powder skips that entire mess. Vibratory feeders and hoppers flow freely, and the powder spreads evenly across build plates or compacting dies. This keeps waste to a minimum and lets additive runs proceed without stripping, gouging, or needing to knock out build platforms mid-run.

    From Aerospace to Printed Prototypes

    Aerospace demands low-oxygen, high-purity feedstock. Our dry titanium powder fits the bill. Its particle shape stays consistent, balancing spherical and irregular forms so it flows without issue but also compacts tightly within dies. Even after a year in proper storage, the powder remains pourable and easy to handle. Those designing custom components for spaceflight or satellite work have relied on the same powder for lightweight, strong parts with minimal post-processing porosity.

    Medical device manufacturers—especially for implants and orthopedic hardware—use this grade to produce parts with repeating, predictable pore structures. Particles below 45 microns fuse well without trapping voids or creating rough edges, which can be critical when dealing with tissue-facing components. Surface finish and powder consistency make a difference not just for mechanical strength, but for how the part integrates in the human body.

    Powder Metallurgy: Beyond Standard Mixes

    Our background in powder metallurgy goes deep, and we know too well what moisture or contaminants do to compaction and sintering. The dry, ultra-clean powder brings yield a step higher, delivering dense, solid parts with detailed edge sharpness. Sintering runs smooth with fewer inclusions or surface blemishes, lowering your rejection rate and reducing machining costs. The powder supports both conventional cold-press sinter jobs and more advanced hot isostatic pressing.

    Cost efficiency matters as much as technical performance. Bulk users who switched from blended, moister powders report better feed consistency and easier die release, even during high-throughput production runs. Fewer clogs, less downtime, and almost no fines lost to sticking. Everything adds up—straightforward use, higher recovery, and less powder thrown out.

    Energy and Defense: Strength and Thermal Performance

    Defense suppliers prize titanium powder for its unmatched strength-to-weight ratio and corrosion resistance. Every batch we produce for these partners upholds tight specs and high repeatability. Whether they produce lightweight casings or advanced ballistic panels, a dry product means no hydride formation or hydrogen embrittlement. Each particle keeps the same microstructure end-to-end, supporting reliable welds and joints down the production line.

    In energy, solid oxide fuel cell manufacturers report better stack integrity and fewer cracks or void spots. Our powder feeds smoothly into extruders and molders, minimizing downtime and boosting unit yield. The dry state eliminates oxidation before sintering, so fuel cell life extends, and rework drops off.

    3D Printing and AM: Avoiding the Pitfalls

    Teams running selective laser melting and electron beam melting systems appreciate feed powders that behave the same every shift. Any moisture or excess oxygen can turn a well-tuned print job into scrap—powder sticks to recoaters, and burners spark unpredictable arcs. Our titanium metal powder arrives ready to pour, sifted for clean, even distribution and always vacuum-packed. It spreads easily on build plates, which brings about finer detail and reliable bonding layer by layer.

    Starved of these details, competitor powders that haven’t managed dryness often force users to halt builds, open machines, and fix feed lines. Print defects trace straight back to water pickup. Some shops try to bake their powder before use, but even careful drying can’t fully fix oxidation damage. By delivering our powder dry from the start, we help shops run with fewer stoppages and richer final properties.

    Differences That Matter: Our Powder vs. Others

    From our decades in titanium processing, we spot the key differences that shape results. Atomized powder, handled in inert atmosphere and shipped vacuum-sealed, outperforms water-atomized or mechanically milled powders in every high-specification application. Fine, dry titanium powder resists clumping and agglomeration, letting your feeder do its job. The sphere-plus-elongate particle shape locks in both flow and compaction, separating our product from lobed, pine-needle-like cuts found elsewhere.

    Oxygen and nitrogen pickup during atomization threatens some brands. Our process keeps these contaminant levels low, making our powder especially credible for sensitive fields. The absence of residual solvent and the guarantee of particle dryness mean fewer defects downstream, whether during HIP, AM, PM, or thermal spraying. Even surface cleaning steps run easier, since you’re not dealing with caked-on moisture or residue from older powder stocks.

    Production, Storage, and Delivery: No Shortcuts

    We have seen what taking shortcuts does to metal powder performance. Moisture invades at every stage outside a controlled environment. Every time powder spends unnecessary hours open to air, it picks up water, and that water leads to trouble anywhere high heat or vacuum waits. Strict adherence to inert processing and vacuum packaging ensures each lot stays dry from our plant to yours.

    A firm supply contract means scheduled, timely delivery. No sitting crates, no exposure, no delay between atomization and packaging. Our team inspects every outgoing lot for dry flow, color, and contamination by direct hands-on testing, not just paperwork or digital logs. Every shipment matches not just the technical data sheet, but the real-world needs of those using it. If you need specific fractions, our process can tweak sieves and oxygen controls on short turnaround—no back-and-forth talking to traders or waiting for a global supply chain to catch up.

    Supporting Tomorrow’s Materials Science

    Research institutes often reach out for help with trials or scale-ups. Our dry titanium powder gets used in pilot runs for next-generation battery anodes, medical scaffolds, and engineered composites. Since each batch holds to the same quality, your test data reflects production runs. No need to hedge your research with backup powders or allow for variable impurity content. Many times, we have helped labs chasing exotic alloy blends by providing intermediate powder grades or slightly modified oxygen content on short lead times.

    As technologies shift, we hear feedback from both R&D labs and full-on production shops. This keeps our production line focused on what matters to real users—particle size, purity, oxygen, and actual dryness. For us, these aren’t just numbers on a spec sheet, but the difference between lab success and field performance. We’ve seen prototypes mature into mass-produced goods and know the link between powder quality today and commercial viability tomorrow.

    Environmental and Safety Considerations

    Across every order, safety and environmental discipline stay at the core. Handling dry titanium powder takes vigilance: it’s a combustible dust with unique requirements. From our side, production operates clean, avoids cross-contact, and manages dust by high-efficiency capture systems throughout atomization and packing. Every batch ships with full material accountability, keeping safety teams informed and giving traceability for every kilogram used.

    Environmentally responsible production keeps emissions low and energy inputs transparent. We recycle process gases and minimize discard rates, ensuring that our impact stays light while the quality stays high. Whether our powder ends up as an aerospace bracket or as a bio-implant, we guarantee transparency in both quality and stewardship. Customers with specific compliance requirements find us ready to share process details and clear documentation—no evasiveness or cut corners.

    Closing Thoughts from the Line

    After decades refining titanium powder production, we see the product not just as raw feed, but as the upstream start point that defines your part properties and process reliability. Every colleague here recognizes the trust placed in us when you choose our dry titanium metal powder. We commit to direct, timely delivery, real-time technical help, and a constant focus on properties that make a difference on your line.

    For questions about tailoring powder grade to specific additive, sintering, or thermal spray needs, our technical managers pull from hands-on experience and get back to you directly—no message passing, no runaround. If supply disruptions loom, our team finds a solution, scaling production or adapting packaging. Your workflow does not stall waiting for an answer.

    In a changing world—supply risk, higher quality bars, and breakthrough tech—material reliability forms the bedrock of every project. Our dry titanium metal powder, shaped start to finish under one roof, reflects that promise. Backed by the work of people who know titanium’s quirks and strengths, this powder shows real difference in every build, weld, print, or press. Time and again, customers return to us not just for another shipment, but for steady support from a team that values the details as you do.