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Metal powder · LPBF

GRX-810 NASA ODS Alloy Powder for LPBF — 15–45 µm, 10 kg

GRX-810 powder price: $5,020 per 10 kg ($502.00/kg)

NASA-developed nickel-cobalt-chromium oxide dispersion strengthened (ODS) alloy, supplied by Carpenter Additive as a coated powder. In the NASA data it gives about twice the strength of 718 and 625 at 1093 °C (2000 °F) and resists oxidation up to 1316 °C (2400 °F).

$5,020

Limited stock$502.00/kg
Order today → ships by Nov 5
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COALot certificate on requestSDSSafety data sheet on request
NDA on request In US stock · ready to ship
15–45 µmParticle size
ODSCoated powder
1316 °COxidation limit (2400 °F)
~2×Strength of 718/625 at 1093 °C
8.44 g/cm³Printed density
10 kgSealed bottle

Values from the GRX-810 NASA-developed data sheet (Distribution Statement A) published by Carpenter Technology.

Same family, 4 options

Which high-temperature nickel alloy is right for your build?

All of them are in our catalog at a published price. Pick by machine, timing and country of origin.

PowderParticle sizeOriginAvailabilityGood fit for10 kg
Carpenter Additive 939W powder, 10 kg containerCarpenter Additive 939WIN939 for AM
15–45 µm · LPBFConfirmed per lotIn stockHot-gas-path turbine parts; precipitation-hardenable$1,770View
Carpenter Additive X (Hastelloy X) F powder, 10 kg containerCarpenter Additive X (Hastelloy X) FFine cut
15–45 µm · LPBFConfirmed per lotIn stockOxidation resistance to 1204 °C (2200 °F), LPBF$1,125View
Carpenter Additive X (Hastelloy X) E powder, 10 kg containerCarpenter Additive X (Hastelloy X) ECoarse cut
45–106 µm · EBMConfirmed per lotIn stockHastelloy X for electron-beam systems$525View
Carpenter Additive GRX-810 powder, 10 kg containerCarpenter Additive GRX-810This page
15–45 µm · LPBFConfirmed per lotIn stockNASA ODS alloy: oxidation resistance to 1316 °C (2400 °F)$5,020Add to cart

Need a specific country of origin for a government or defense program? Ask before ordering and we will confirm it in writing for your lot.

Powder data

What is in the container

Specification from the manufacturer. The certificate for your lot is available on request.

Specification

Nominal composition of the base powder (wt%), per the NASA-developed data sheet.

Elementwt%
Nickel (Ni)Balance
Cobalt (Co)32
Chromium (Cr)30
Tungsten (W)3.0
Rhenium (Re)1.5
Niobium (Nb)0.8
Aluminum (Al)0.3
Titanium (Ti)0.3
Carbon (C)0.055
Powder propertyRequirement
Particle size15–45 µm cut for laser powder bed fusion
FormCoated powder; the oxide dispersion is added by coating
D10 / D50 / D90reported on the lot certificate

What comes with your lot

From the manufacturer certificate

  • Chemistry against the specification limits on the left
  • Particle size distribution: D10, D50, D90
  • Flow rate and apparent density
  • Lot number for traceability

The certificate for your lot is available on request. The manufacturer datasheet for this alloy has no particle image; ask us if you need one.

Printed properties

How the printed metal performs

From the NASA-developed data sheet, printer 1, Z direction. Results vary by printer; the full data sheet covers other machines, orientations and temperatures. Not design data.

ConditionTestYield, MPaUTS, MPaModulusDensity, g/cm³Thermal cond., W/m·K
As-builtZ, 24 °C573882190.6 GPa8.4410.55
HIPZ, 24 °C480892188.2 GPa8.4411.0
As-builtZ, 1093 °C110115———
HIPZ, 1093 °C109116———

Heat treatment

Carpenter datasheet, process guidance

  • Used as-built or after HIP; no solution or aging treatment is required.
  • HIP for the published data: 1163 °C for 3–4 hours at 103 MPa (ASTM F3301).
  • Published LPBF core parameters: 275 W laser power, 1000 mm/s scan speed, 0.04 mm layers. Tune them for your platform.
Comparison

How this GRX-810 compares

Published tensile data, X–Y direction unless noted, one representative condition per alloy. Conditions differ, so use this to shortlist, not to design.

AlloyConditionYield, MPaUTS, MPaElongationChoose it for10 kg
GRX-810HIP, Z, 24 °C (NASA data)480892—Oxidation to 1316 °C; ~2× 718/625 strength at 1093 °C$5,020
Hastelloy XSolution + age39381641%Oxidation resistance to 1204 °C (2200 °F)$1,125
Inconel 718Solution + age1086142513%Strength up to 704 °C (1300 °F)$1,000
Compatibility and handling

Will it run on my printer?

Prints on open-parameter laser powder bed fusion systems at build speeds similar to 718, per the NASA data. Ask our materials engineer for starting parameters for your machine.

EOSM 290 · M 300-4 · M 400
SLM Solutions / NikonSLM 280 · 500
RenishawAM 400 · RenAM 500
DMG Mori · TRUMPFLasertec · TruPrint
Xact MetalXM series
Velo3D · Aconity3DSapphire · MIDI / ONE
3D Systems · BLT · Eplus3DDMP Flex / Factory · BLT-S · EP-M
and other open-parameter LPBFtuned per machine

Machine names identify compatible equipment only. Additive Plus is not affiliated with these manufacturers, and the powder is not approved by them. Process parameters are tuned per machine.

Step 1

Store sealed

Keep the container closed, dry and at room temperature until you load the printer.

Step 2

Sieve

Sieve before loading and every time you reuse powder recovered from a build.

ATO Sieve ultrasonic metal powder sieving stationATO Sieve · quote
Step 3

Load and purge

Fill the dispenser, close the chamber and purge with argon or nitrogen.

Step 4

Print and relieve

Stress-relieve on the plate, then remove parts and supports.

Step 5

Recover

Collect unfused powder, sieve it and return it to a sealed container.

Delfin Mistral 451 BL D2 — ATEX metal powder vacuumDelfin Mistral 451 BL D2 — ATEX metal powder vacuum · $7,175

Wear a respirator, gloves and eye protection when handling metal powder. Read the safety data sheet before first use.

Applications

Printed on AO Metal

Real builds on the LPBF printers we sell, and what teams make from this alloy.

Recoater spreading 316L powder while the laser melts a grid of test cubes on an AO Metal printer
Powder in the chamberThe recoater spreads 316L powder, then the laser melts a grid of test cubes.
Stainless steel test cubes and lattice coupons printed on the AO Metal A30, measured with a caliper
Test cubes and latticesStainless steel coupons printed on the AO Metal A30, checked with a caliper.
Lattice cube printed on the AO Metal A30 build plate
Lattice on the plateA lattice cube on the AO Metal A30 build plate.
Metal heat exchanger printed on the AO Metal A100
Heat exchangerPrinted on the AO Metal A100; LEAP 71 reference geometry.

Parts printed on AO Metal printers, which we sell. Alloys, parameters and powder lots differ from part to part; these photos show the process, not parts made from this specific powder lot.

  • Liquid rocket engine injectors and preburners
  • Turbine and hot-section parts up to about 1,100 °C
  • Parts that bridge nickel superalloys and refractory alloys

Applications as listed in the NASA-developed data sheet.

Ordering

Ordering, delivery and our promise

Pack

10 kg of 15–45 µm coated powder, sealed, with the certificate of analysis for the lot on request.

Delivery

The ship date shows next to the Add to Cart button. Shipping cost is calculated at checkout.

Payment

Card or PayPal at checkout, an invoice, or a purchase order — choose how you buy next to Add to Cart.

Volume

100 kg and more: ask for a volume quote with your alloy, quantity and ship-to.

If the powder is not right, we make it right.

If your lot’s chemistry or particle size falls outside its certificate or this page, or it arrives damaged or wrong, tell us within 14 days of delivery. We replace it or refund you, and we pay for shipping both ways.

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Not ready for a full bottle? Request a sample or a custom quantity.

Common questions

Don't see yours? Email [email protected] — NDA on request.

What is GRX-810 powder?
GRX-810 is a NASA-developed nickel-cobalt-chromium oxide dispersion strengthened (ODS) alloy for laser powder bed fusion, supplied by Carpenter Additive as a coated 15–45 µm powder. Its nominal chemistry is about 32% cobalt, 30% chromium, 3.0% tungsten and 1.5% rhenium with nickel as the balance. According to the NASA-developed data sheet published by Carpenter, it resists oxidation up to 1316 °C (2400 °F) and keeps a stable microstructure up to its melting temperature.
How strong is printed GRX-810 at high temperature?
According to the NASA-developed data sheet, at 1093 °C (2000 °F) GRX-810 gives about twice the strength of superalloys 718 and 625 and more than 1,000 times longer creep rupture life in the build direction. On printer 1 in the Z direction, as-built parts reached 110 MPa yield and 115 MPa tensile strength at 1093 °C, and 573 MPa yield and 882 MPa tensile at room temperature. Results vary by printer.
Does GRX-810 need heat treatment after printing?
No solution or aging treatment is required: GRX-810 is used as-built or after HIP. The HIP cycle used for the published NASA data was 1163 °C for 3 to 4 hours at 103 MPa, per ASTM F3301. After HIP, room-temperature tensile strength was 892 MPa in the Z direction. Follow your own specification and qualify the condition on coupons from your machine.
Which printer parameters does GRX-810 use?
The NASA-developed data sheet publishes LPBF core parameters of 275 W laser power, 1000 mm/s scan speed and 0.04 mm layer thickness, and notes that GRX-810 prints at build speeds similar to superalloy 718. Parameters may need tuning for each platform. Our materials engineer can help you plan test coupons and starting parameters for your open-parameter LPBF machine before the first production build.
What is GRX-810 used for?
The NASA-developed data sheet lists liquid rocket engine injectors and preburners, turbine and hot-section parts operating up to about 1,100 °C, and parts that must bridge the gap between nickel superalloys and refractory alloys. It suits teams that need more high-temperature strength and oxidation resistance than 718, 625 or Hastelloy X can give, while keeping the build speed of a nickel superalloy.
Does GRX-810 powder come with a certificate of analysis?
Yes. Each 10 kg bottle of Carpenter Additive GRX-810 is traceable to its lot, and the certificate of analysis for the lot you receive is available on request, with chemistry and particle size distribution. If your quality team needs to review documents before ordering, ask us for a recent certificate and the full NASA-developed data sheet, and we will send them.
How do I order GRX-810, and how can I pay?
Add it to the cart and pay by card or PayPal, choose Invoice me at checkout to receive an invoice for bank transfer, or request a formal quote with the button next to Add to Cart and send us a purchase order. The ship date appears next to the button. Tax-exempt buyers can upload a certificate at checkout. For larger quantities, ask us for a volume quote.

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Order GRX-810 Powder for Metal 3D Printing | NASA ODS Alloy, LPBF - 10 kg / 22 lbs direct, or talk to materials engineer

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