What metal 3D printer should I get?

Choosing a metal 3D printer depends heavily on your budget, whether you mean a true sintered metal printer or an FDM printer that uses metal-filled filaments , and your technical expertise.

True industrial metal 3D printers (like Selective Laser Melting or Binder Jetting systems) cost anywhere from $100,000 to well over $1,000,000. However, desktop/prosumer solutions have emerged that use bound metal filament followed by a debinding and sintering post-process.

Top recommendations categorized by use case and technology:

1. Best Professional Desktop Bound-Metal System: Raise3D Forge1
   • Price: ~$9,999 (bundled via MatterHackers or HartSmart Products)
   • How it works: Part of the Raise3D MetalFuse ecosystem. It prints BASF Ultrafuse metal filaments (like 316L stainless steel or 17-4 PH), which are then washed and sintered in a dedicated furnace setup.
   • Best for: Small businesses, engineering firms, and advanced prototyping labs needing functional end-use metal parts without buying a six-figure laser machine.[1]
2. Best for High-Speed Engineering & Composite/Metal-Like Filaments: AnkerMake M5C
   • Price: ~$300 - $400 (Budget-friendly)
   • How it works: This is an FDM printer with an all-metal hotend capable of handling abrasive carbon-fiber or high-temp materials up to 300°C.
   • Best for: Hobbyists who want strong, reinforced composite parts rather than true heavy-metal sintering.
3. True Industrial Laser/Sintering Alternative (Outsourced Approach)
   • If you need aerospace-grade titanium, inconel, or solid stainless steel parts with zero porosity and you don't have $150K+ to drop on a Desktop Metal or Markforged Metal X system, your best move is usually purchasing the printer for plastic/composites and outsourcing the actual metal sintering via services like Protolabs or Xometry.

To help narrow down the exact machine, let me know:

• What is your approximate budget?
• Do you need true solid metal parts (requiring a debinding/sintering workflow) or high-strength composite/metal-filled filaments?
• What type of metal or application are you targeting?

The right metal 3D printer depends heavily on what you want to make, your budget, and whether you need true production parts or just metal-looking prototypes. Metal printers range from roughly workshop-scale systems to industrial machines costing hundreds of thousands of pounds.PrintingXYZ+1

A good shortlist:

If you are…	Consider	Why
A small engineering shop wanting functional metal parts	Markforged Metal X	Easier workflow than powder-bed systems; prints metal-bound filament and uses washing/sintering. Good for prototypes, jigs, fixtures, replacement parts, and low-volume production.Markforged+1
A manufacturer needing production-grade metal AM	EOS EOS M 290 / M 400 series	Industrial laser powder bed fusion; strong material options and established production workflows.EOS
A company making many small metal parts	Desktop Metal Shop System or X-Series	Binder jetting can be attractive for batch production and higher throughput.Desktop Metal
A hobbyist or home user	Usually don’t buy a metal printer	The cost, safety requirements, post-processing, and materials make them impractical for most homes. Consider outsourcing metal prints or buying a good polymer printer plus machining services.

My default recommendations

• Under ~£100k: Look hardest at Markforged Metal X. It is one of the more approachable ways to get real metal parts without running a powder-bed laser system.Markforged
• £100k–£500k+: Compare industrial systems from EOS, Desktop Metal, Renishaw, SLM Solutions, etc., based on your material and production needs.EOS+1
• For aerospace, medical, or certified production: Choose based on qualification requirements first, not printer price.

Before buying, I’d want to know:

1. Budget: £5k, £20k, £100k, £500k+?
2. Metals needed: aluminium, stainless steel, titanium, tool steel, copper, Inconel?
3. Purpose: prototypes, tooling, spare parts, end-use products, production?
4. Part size: e.g., 50 mm brackets vs 400 mm components?
5. Location/workshop constraints: do you have ventilation, compressed air, post-processing space, and trained operators?

If you answer those five, I can narrow it down to 2–3 machines rather than a broad list.

If you mean a printer that produces actual metal parts, my recommendation depends heavily on your budget and whether this is for a hobby, prototyping, or production.

My shortlist

• Best overall for a small machine shop: Markforged Metal X — probably the safest choice if you want a mature, relatively straightforward metal-printing workflow. It uses bound-metal filament rather than loose metal powder, with a 300 × 220 × 180 mm build volume, and supports materials including 17-4PH stainless, copper, H13, D2, and Inconel 625.Markforged

• Best lower-cost entry: Raise3D Forge1 — currently listed around $10,000, making it dramatically cheaper than a full industrial Metal X system.

• Best if you need true LPBF metal printing: Xact Metal XM200G or One Click Metal MPRINT. These use laser powder-bed fusion, which is a better route when you need very dense, complex metal parts and more control over the metallurgy, but the facility/safety requirements are substantially greater.Print3DIndex

• Production/aerospace: look at EOS, Nikon SLM, Renishaw, or Velo3D rather than desktop-style systems. You're generally talking hundreds of thousands of dollars and significant infrastructure.Matrix 3D Printer

One important warning: don't buy based on the printer price alone. A bound-metal machine needs debinding/sintering equipment, while LPBF machines require powder handling, inert gas, safety infrastructure, and post-processing. For example, the Metal X ecosystem includes a Wash-1 and Sinter system, and sintering can take roughly a day or more.Markforged

If you tell me your budget (e.g. $10k, $25k, $100k+), what metal you want to print (steel, aluminum, titanium, copper, etc.), and largest part size, I can narrow it down to 2–3 machines I'd actually buy.

Choosing a metal 3D printer depends heavily on your budget, whether you want "true" metal printing (laser/powder bed fusion or bound metal deposition with a debinding/sintering workflow) versus metal-filled filaments, and your application (prototyping vs. end-use production).

Metal 3D printing solutions generally fall into distinct tiers:

• Professional / Prosumer Metal Filament Printers (~ $10,000):
  • Example: [Raise3D Forge1 3D Printer ](https://shop.raise3d.com/products/raise3d-forge1-3d-printer?variant=12096460062756&country=US&currency=USD&utm_medium=product_sync&utm_source=google&utm_content=sag_organic&utm_campaign=sag_organic&srsltid=AfmBOop5e_tBqTD-lMU6uP-xm4e6zCIFjVPNH67NK1_inJdQHSMBDJOfuqQ) (available via MatterHackers).
  • How it works: Uses metal filaments (like BASF Ultrafuse) to print a "green" part, which then requires external debinding and sintering furnaces (often bundled or outsourced).
  • Best for: Small businesses and advanced R&D labs wanting functional metal parts without a six-figure machine investment.[1]
• Office-Friendly / Mid-Range Industrial Systems (~ $150,000 - $200,000+):
  • Example: [Desktop Metal Studio System 2 ](https://www.dynamism.com/desktop-metal/desktopmetal-studio-system-2.html?srsltid=AfmBOoodUML5fP8Wkd4Ad021sVvI5GN7N4DO6qtVuvWzDvaWJaQPegVSRyY).
  • How it works: Bound Metal Deposition (BMD)—extrudes metal rods bound in polymer, followed by a streamlined two-step print-and-sinter workflow designed to be safe for a standard office environment.
  • Best for: Engineering firms and toolmakers needing safe, in-house functional stainless steel parts.[1]
• High-End Industrial / Powder Bed Fusion ($500,000+ to Millions):
  • Examples: Systems from EOS, SLM Solutions, or Trumpf.
  • How it works: Selective Laser Melting (SLM) or Direct Metal Laser Sinking (DMLS) fusing metal powder with high-powered lasers.
  • Best for: Aerospace, medical implants, and high-volume production of complex titanium, inconel, or aluminum components.

To help narrow down the right option, tell me:

• What is your approximate budget?
• What materials do you plan to print (e.g., Stainless Steel 316L, Titanium, Tool Steel)?
• Do you have access to a sintering furnace/debinding workflow , or do you need a completely turnkey office-safe system?

If you mean a printer that actually produces metal parts, the right choice depends heavily on your budget and what you're making. There isn't one universal winner.

My shortlist

• Best overall for a small machine shop: Markforged Metal X. It uses bound-metal extrusion rather than loose metal powder, so the workflow is considerably easier and safer than laser powder-bed systems. It can produce 17-4PH stainless, copper, H13/A2/D2 tool steels, and Inconel 625. The build volume is 300 × 220 × 180 mm, but you also need the washing and sintering equipment.Markforged+1
• Best if you need true high-density/high-precision metal parts: an LPBF/SLM machine such as the Xact Metal XM200G or comparable professional systems. These use a laser and metal powder and are substantially more demanding, but they're the direction I'd look for aerospace-quality geometry, complex internal channels, and demanding mechanical parts.Matrix 3D Printer+1
• Best lower-cost entry into metal: Raise3D Forge1 is currently listed around $10k. I'd investigate it carefully before buying, though, because the printer price isn't necessarily the same thing as the complete cost of producing qualified metal parts.
• Don't confuse the Formlabs Fuse machines with metal printers. The Fuse 1+/Fuse X1 are SLS machines for polymers such as nylon, not metal.Formlabs+1

What I'd buy

If you told me “I own a machine shop and want to start making metal parts in-house”, I'd lean toward the Metal X because the overall workflow is much more approachable. The tradeoff is that it's not equivalent to a laser powder-bed machine in terms of geometry, density, surface finish, or material freedom.Markforged

If you're willing to spend $100k–$300k+ and your priority is maximum part quality rather than ease of use, I'd skip bound-metal extrusion and investigate LPBF.

If you give me your budget (e.g. $5k, $20k, $50k, $100k+), what metal you want to print, and what kind of parts you're making, I can narrow it down to 2–3 machines and compare purchase price, operating cost, accuracy, build volume, materials, and required equipment.