Metal 3D Printing Powder Price per kg: 2026 Ranges and RFQ Guide

Summary

October 2026 public price ranges per kg for 316L, 17-4PH, Ti6Al4V, IN718, IN625, AlSi10Mg, copper and cobalt chrome AM powders, plus the cost drivers to check before a formal quote.

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Metal powder for 3D printing price depends on alloy family, particle-size cut, powder quality, order quantity, documentation, and delivery terms. A useful price comparison must compare the same type of powder, not just the same alloy name.

Public price lists can help with early budgeting, but they become misleading when they omit specification, lot size, packaging, documentation, delivery terms, or quote validity. This page therefore gives dated public reference ranges, then explains how to compare quotations without treating any list price as a fixed market price.

Public price references per kg (October 2026)

The ranges below were checked on 2026-10-07 from public list prices for LPBF-grade powder (15–45 µm, 15–53 µm or 20–63 µm). The low end is a European marketplace ex-works price for 20 kg+ orders, mostly China- or India-origin powder; the high end is a US distributor price for a 10 kg pack. EUR prices were converted at about 1.1 USD/EUR and rounded.

Powder Reference range, USD/kg Grade page
316L stainless steel ≈ 15–70 316L powder
304L stainless steel ≈ 17–55 304L powder
17-4PH stainless steel ≈ 16–70 17-4PH powder
15-5PH stainless steel ≈ 21–57 15-5PH powder
H13 tool steel ≈ 20–65 H13 powder
M300 / 18Ni300 maraging steel ≈ 37–125 M300 powder
AlSi10Mg aluminum ≈ 23–82 AlSi10Mg powder
IN718 nickel alloy ≈ 55–100 IN718 powder
IN625 nickel alloy ≈ 56–115 IN625 powder
Alloy X nickel alloy ≈ 64–111 Alloy X powder
Pure copper ≈ 56–88 Pure copper powder
CuCrZr copper alloy ≈ 64–90 CuCrZr powder
Ti6Al4V Grade 5 / Grade 23 ≈ 125–250 Ti6Al4V powder
CoCrMo cobalt chrome ≈ 64–236 CoCrMo powder

How to read the table:

  • Sample quantities cost more. A 1–5 kg trial is usually priced above the 20 kg tier; multi-hundred-kilogram lots usually fall below it.
  • Origin and brand explain most of the spread. Western-brand powder in small packs sits at the top of each range; China-origin powder bought by the lot sits near the bottom.
  • Fine cuts cost more. A 15–45 µm LPBF cut usually costs more than a 45–106 µm DED cut of the same alloy because of sieving yield.
  • These are not offers. Freight, duty, documentation scope and quote validity are not included. Formal prices come only from a written quotation.

Relative price position by powder family

The table is a relative sourcing guide, not a quotation. Actual order prices can reverse the broad pattern when the PSD, quantity, source, documentation, packaging, or freight basis changes.

Powder family / grade Relative sourcing position Main quote variables
316L stainless steel Often one of the more accessible AM powder routes PSD, order quantity, atomization source, COA scope and freight
17-4PH stainless steel Common but more condition-sensitive than a simple stainless label suggests Chemistry, PSD, final heat-treatment route and production volume
H13 and M300 tool steel Specialized tooling route Grade identity, PSD yield, quantity, documentation and technical support
AlSi10Mg aluminum Common LPBF aluminum route Packaging, oxide/contamination control, PSD and shipment handling
Ti6Al4V / Grade 23 / CP titanium Higher-control reactive-metal route Interstitial limits, atomization route, grade, documents, pack size and destination
IN718, IN625 and Alloy X Alloy- and service-specific nickel route Chemistry, lot size, PSD, qualification evidence and market raw-material basis
CuCrZr or pure copper Specialized conductivity-led route Exact alloy, oxygen control, PSD yield, machine route and requested conductivity evidence
CoCrMo or CoCrW Specialized dental, medical or industrial wear route Exact grade, documentation, quantity, powder condition and application evidence

This relative position is best used for early sourcing decisions. For a formal price, the supplier still needs alloy grade, PSD, quantity, destination, packaging, certificate scope, and application context.

Why prices differ by alloy

Stainless steel powder is usually one of the more economical metal AM powder categories. 316L and 17-4PH are common examples. Tool steels such as H13 and M300 usually cost more than common stainless powders because of alloy composition and production volume.

Titanium powders such as Ti64 or Grade 23 are usually higher because of raw material, oxygen control, and powder handling requirements. Nickel alloys such as IN718, IN625, and Alloy X are also higher because of alloying content and demanding application environments.

Copper alloy powders such as CuCrZr often sit in a specialized category because conductivity, oxygen behavior, and printability all matter. Cobalt chrome powders are usually high-value powders for dental, medical, or wear-related applications.

Particle-size window affects cost

A fine LPBF powder cut such as 15-45 um or 15-53 um is not priced the same as a broader or coarser powder cut. Yield from atomization, sieving, and powder classification affects price.

The buyer should avoid asking for the cheapest powder without defining process route. A low-cost powder that does not match the machine or process window is not actually cheaper.

Documentation and quality also affect price

Powder with stronger documentation may cost more. COA, PSD report, controlled chemistry, lot traceability, and special packaging all add cost or handling work. This is normal when the application is more serious than a loose development trial.

Titanium oxygen limits, nickel alloy chemistry, stainless powder PSD stability, and copper powder morphology should be treated as part of the buying decision, not afterthoughts.

What a buyer should send for pricing

To get a useful price, send:

  • alloy grade,
  • target particle-size range,
  • process route,
  • quantity,
  • destination country,
  • documentation requirement,
  • whether the powder is for development, qualification, or recurring production.

If the buyer only asks “how much is metal powder for 3D printing,” the quote will either be broad or inaccurate.

Conservative budget logic

For early budget comparison, common stainless and aluminum routes may be more accessible than titanium, nickel, copper, cobalt chrome, and specialized tool steel routes. This is a planning pattern, not a universal ranking. Ti64, IN718, IN625, CuCrZr, and CoCrMo should not be treated as commodity powders even when a low public price appears online.

The safest budgeting method is to compare quotations on one normalized basis after the buyer defines grade, particle-size range, lot size, documents, packaging, Incoterm, destination, currency, tax, and quote validity. A cheaper powder that fails the application is more expensive than a correct powder quoted honestly.

Why price pages should stay conservative

Published powder prices are best treated as budget signals, not binding commercial terms. Metal powder markets move with raw material prices, atomization capacity, powder cut, inspection scope, and freight conditions. A responsible price guide should explain the cost drivers and then push the buyer toward a controlled RFQ.

Engineers and sourcing teams need a realistic comparison basis and a clear list of information to send for a formal quote, rather than an unsupported “cheap powder” claim.

The practical takeaway

Use price as a filter after the alloy, process, and application are clear. For specific powder choices, start with the metal powder for 3D printing guide and then move into the relevant material center.

A worksheet for comparing two powder quotations

Compare technical acceptability before unit price. Copy this worksheet into the purchasing review and fill it from the two actual offers. Blank or unclear fields mean clarification is needed; they are not a zero-cost assumption.

Comparison field Record for each offer Why the difference matters
Grade and specification edition Exact designation, chemistry and agreed exceptions Similar names may describe different acceptance limits
Process, PSD and method Machine route, nominal cut, measured PSD and test basis A cheaper but incompatible cut is not an equivalent offer
Quantity and packaging Ordered net mass, pack size and any minimum order Compare net powder mass, not gross shipping weight
Included evidence Lot COA, PSD, agreed tests and available technical files Separate included reports from chargeable testing
Delivery basis Named destination, agreed Incoterm and included transport costs Do not add freight twice or omit buyer-paid charges
Commercial basis Currency, quote date, validity and payment terms Compare offers valid for the same buying decision
One-time work Trial, setup or qualification costs shown separately Do not confuse first-order cost with recurring supply cost

For an internal purchasing comparison, calculate comparable delivered cost per net kilogram = (powder charge + agreed testing/packaging charges + buyer-paid delivery costs included in the comparison) / ordered net powder mass. Apply the same currency, destination, tax treatment and included-cost boundary to both offers. This is a comparison method, not a market price or a promise about duties, freight or future supply.

Keep first-order qualification cost on a separate line and request a repeat-order basis where relevant. If an offer changes the grade, PSD, powder condition or evidence package, return to technical review before treating the price difference as a saving.

Start with 316L powder, Ti6Al4V powder or AlSi10Mg powder for a grade-specific request. If comparing several materials, use the existing multi-product RFQ so quantities and process requirements can be specified per item.

Quote-comparison block

Ask every supplier to state: manufacturer and source, exact grade, powder route, PSD and method, quantity and pack size, powder condition, COA and technical-file scope, unit price and currency, Incoterm, freight, tax, lead time, quote validity, payment terms, change notification, and any minimum order. A price without this basis is not comparable.

If PSD data, TDS/SDS, a lot COA, SEM images, or packaging evidence are required before approval, list them in the RFQ. The supplier can then price the correct evidence package instead of quoting an undefined commodity powder.

Buyer evidence gate

Evidence to request before approval

Powder data can support feedstock selection and lot acceptance. It does not qualify a machine parameter set, certify a finished part, or replace application-specific testing.

Put these items in the RFQ

  • Lot-specific chemistry and the referenced alloy specification
  • PSD results with sampling method, measurement method, and reporting basis
  • Powder production route, condition, traceability, packaging, and change notification
  • Available TDS/SDS, COA, morphology or SEM evidence, and process-specific test data

Standards and technical starting points

  • ISO/ASTM 52907:2019 Metal-powder documentation, traceability, sampling, PSD, chemistry, density, morphology, flow, contamination, packaging, and storage.
  • ISO/ASTM 52928:2024 Lifecycle controls for virgin and used metal powder, including quality assurance and test strategy.

Need the available lot-specific COA, PSD report, TDS/SDS, SEM images, or packaging evidence? List the required files and acceptance basis in the powder RFQ.

Specifications & quotation

Review powder grades and request a quotation

Review the relevant powder grades, candidate particle sizes and available lot documents, then send your process, quantity and delivery requirements for a quotation.

Stainless steel 316L · S31603

316L stainless steel powder

A widely used corrosion-resistant powder for manifolds, fluid hardware, industrial parts, MIM, and binder jet.

Related designations
316L, UNS S31603, EN 1.4404
Candidate PSD
15–45 µm / 15–53 µm / 45–106 µm
Process routes
LPBF, DED, Binder jet, MIM
Titanium Ti64 · Grade 5

Ti6Al4V powder

A widely used titanium alloy powder for lightweight structural AM parts where strength-to-weight performance matters.

Related designations
Ti-6Al-4V, Ti64, Grade 5, UNS R56400
Candidate PSD
15–45 µm / 15–53 µm / 45–105 µm
Process routes
LPBF, EBM, DED
Aluminum AlSi10Mg

AlSi10Mg powder

Lightweight aluminum powder for housings, brackets, thermal structures, and transportation hardware.

Related designations
AlSi10Mg, Aluminum-silicon-magnesium
Candidate PSD
20–63 µm / 15–53 µm / 45–106 µm
Process routes
LPBF

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