3D Printing Powder Materials
Browse metal and alloy powders for additive manufacturing, grouped by base element to match our production catalog — aluminum alloys, iron/steel, nickel and cobalt superalloys, titanium alloys, refractory metals (Mo, Nb, Ta, W), precious/soft metals (Ag, Bi, Sn, Zn) and high/medium-entropy alloys. Several widely used AM materials (316L, 17-4PH, Ti-6Al-4V, Inconel 625/718, CoCrMo, AlSi10Mg, 18Ni300, H13, Cu, CuSn10, W, CP-Ti) are also detailed on our Spherical Powders page — use View Details to jump to the full specification.
High-strength Al-Cu-Mg alloy powder (Cu 3.8–4.9%, Mg 1.2–1.8%, Mn 0.3–0.9%) for aerospace-grade AM structural parts.
Al-Mg-Mn alloy powder (Mg 4–4.9%, Mn 0.4–1%) with good corrosion resistance for marine and structural AM applications.
Al-Mg-Si-Cu alloy powder (Mg 0.8–1.2%, Si 0.6–1.0%, Cu 0.6–1.1%) for structural AM parts; supplied to order — confirm current AM-grade availability at quotation.
Widely used Al-Mg-Si alloy powder (Mg 0.8–1.2%, Si 0.4–0.8%) for general-purpose structural AM parts.
High-strength Al-Zn-Mg-Cu alloy powder (Zn 5.1–6.1%, Mg 2.1–2.9%, Cu 1.2–2%) for aerospace and high-load AM parts.
The most widely used AM aluminum alloy — see full specification on our Spherical Powders page.
Near-eutectic Al-Si12 alloy powder (Si 11–13%) with excellent flowability and low shrinkage for AM and brazing applications.
Al-Si10 braze-alloy-family powder for AM and brazing use; exact grade composition confirmed at quotation.
Al-Si7-Mg alloy powder (Si 6.5–7.5%, Mg 0.3–0.5%) — a common high-strength castable AM aluminum alloy.
High-purity bismuth powder (99.95%) for low-melting alloys, fusible alloys and specialty AM/casting applications.
High-purity chromium powder (Cr 99.9%) for alloying, thermal spray and specialty AM feedstock.
Industrial-grade chromium powder (Cr 99%) for alloying and general metallurgical use.
Spheroidized chromium powder for AM and thermal spray feedstock; purity and size grade confirmed at quotation.
Biomedical/dental-grade cobalt-chrome-molybdenum alloy — see full specification on our Spherical Powders page.
Cobalt-chrome alloy with molybdenum and tungsten additions (Cr 24–35.6%, Mo 4.8–5.6%, W 5–5.9%) for wear-resistant AM parts.
Cobalt-chrome-nickel alloy powder (Ni 21–40%, Cr 26–35%) for corrosion- and wear-resistant AM parts.
Cobalt-chrome-tungsten alloy powder (Cr 26.4–29.1%, W 6.9–9.1%) for high-temperature wear-resistant AM parts.
High-conductivity pure copper powder — see full specification on our Spherical Powders page.
Tin-bronze alloy powder (Sn 9.3–11.4%) — see full specification on our Spherical Powders page.
Precipitation-hardening martensitic stainless powder (Cr 11.1–14%, Ni 8.1–10%) for high-strength AM parts.
Widely used precipitation-hardening stainless — see full specification on our Spherical Powders page.
High-strength maraging tool steel — see full specification on our Spherical Powders page.
Low-carbon austenitic stainless powder (Cr 18–20%, Ni 8–12%) for general corrosion-resistant AM parts.
The most widely used AM stainless steel — see full specification on our Spherical Powders page.
Martensitic stainless powder (Cr 12.1–14.1%, C 0.2–0.4%) for hardenable, wear-resistant AM parts.
Ferritic stainless powder (Cr 16–18%) in standard (430) and low-carbon (430L, C ≤0.12%) grades for corrosion-resistant AM parts.
High-carbon martensitic stainless powder (Cr 16–18%, C 0.95–1.2%) for hardened, wear-resistant parts; primarily supplied for MIM — confirm AM qualification at quotation.
Iron-chromium-aluminum alloy powder (Cr 19–21%, Al 6.5–7.5%) for high-temperature/oxidation-resistant heating-element-type AM parts.
Hot-work tool steel — see full specification on our Spherical Powders page.
Heat/creep-resistant Cr-Ni cast-steel-family powder (Cr 24–26%, Ni 19–22%, Nb 1.2–1.5%); primarily supplied for MIM — confirm AM qualification at quotation.
Molybdenum-series high-speed tool steel powder (W 5.5–6.75%, Mo 4.5–5.5%, Cr 3.8–4.4%, V 1.75–2.2%) for wear-resistant cutting-tool AM parts.
High-purity iron powder (Fe ≥99.8%) for soft-magnetic and general metallurgical AM applications.
Corrosion-resistant Cr-based plastic-mold-steel powder (Cr 13–14%, C 0.36–0.45%) for mold-insert AM parts.
High-purity molybdenum powder (Mo ≥99.8%) for high-temperature components, alloying and specialty AM feedstock. Density 10.2 g/cm³, melting point 2622°C.
Nickel-chromium-iron-molybdenum superalloy powder (Cr 20.5–23.1%, Fe 17–20%, Mo 8–10%) for high-temperature AM combustor and structural parts.
Corrosion- and high-temperature-resistant superalloy — see full specification on our Spherical Powders page.
The most widely used AM nickel superalloy — see full specification on our Spherical Powders page.
Cast turbine-blade-family nickel superalloy powder (Cr 15.5–16.5%, Co 8–10%, Al 3.2–3.7%, Ti 3–3.5%) for high-temperature AM components.
Nickel-titanium shape-memory alloy powder (~55.9 wt% Ni, balance Ti) for medical devices and functional AM parts.
High-purity nickel powder (Ni ≥99.8%), also available in spheroidized/atomized morphology, for alloying, coatings and AM feedstock.
High-purity niobium powder (Nb 99.9%) for superconducting, refractory and specialty alloy AM applications.
High-purity silver powder (Ag 99.99%) for conductive, brazing and specialty AM applications.
High-purity refractory tantalum powder (Ta 99.9%) for chemical-process, medical and high-temperature AM components.
Tin powder (Sn 99.5%) for solder, low-melting alloys and specialty AM/joining applications.
Commercially pure titanium (TA1 designation, equivalent to Grade 1 CP-Ti) — see full specification on our Spherical Powders page.
The most widely used AM titanium alloy — see full specification on our Spherical Powders page.
Near-alpha titanium alloy powder (Al 5.4–7.1%, Zr 1.4–2.6%, V 0.7–2.6%, Mo 0.5–2%) for high-temperature aerospace AM structural parts (usable to ~500°C).
High-density refractory tungsten powder — see full specification on our Spherical Powders page.
Spheroidized zinc powder (98.5%) for alloying, coatings and specialty AM/thermal spray applications.
Equiatomic "Cantor alloy" high-entropy powder (~20 at% each of Fe, Co, Cr, Ni, Mn) — the benchmark HEA, known for exceptional cryogenic toughness and ductility.
Fe-Co-Ni-Cr-base high-entropy alloy powder with a molybdenum alloying addition for enhanced wear resistance; exact at%/wt% ratio confirmed at quotation.
Al-containing high-entropy alloy powder (Fe/Co/Cr/Ni ~21–24% each, Al ~10–11%) — one of the most-studied AM HEA families, offering a tunable strength-ductility balance.
Equiatomic Fe-Co-Ni-Cr-Ti high-entropy alloy powder (~20% each) with Ti-driven precipitation strengthening for high-strength AM parts.
Co-Cr-Ni-base high-entropy alloy powder with Al and Ti additions (Co/Ni ~31–35%, Cr ~28–31%, Al ~1.25–1.65%, Ti ~2.3–2.9%); research/custom-order grade — confirm current stock and lead time at quotation.
Ni-base high-entropy alloy powder with Cu, Fe, Cr and Al additions (Cu 16–18%, Fe 14–16%, Cr 14–16%, Al 7–9%); research/custom-order grade — confirm current stock and lead time at quotation.
Equiatomic 4-element medium-entropy alloy powder (~25% each of Fe, Co, Ni, Cr) related to the CoCrNi family, valued for exceptional cryogenic damage tolerance.