Markforged Metal X holds a clear lead, frequently recommended as an approachable bound-metal system for tooling and functional prototypes. Buyers often choose it when seeking an alternative to loose metal powder systems.
The Markforged Metal X is probably where I'd start. It has a 300 × 220 × 180 mm build volume and can work with materials including 17-4PH stainless, copper, H13/D2/A2 tool steels and Inconel 625. Its bound-powder process avoids the loose-metal-powder workflow of conventional laser systems.
But there's an important distinction: the ~$10k-ish machines you may see advertised aren't equivalent to a $500k+ industrial laser powder-bed machine. Bound-metal systems print a metal/binder composite and then debind/sinter it; LPBF machines actually melt metal powder with a laser. The resulting economics, tolerances, surface finish, materials, and post-processing are quite different.
What I'd buy based on your situation
Under $20k: I'd investigate the Raise3D Forge1 and similar bound-metal systems first.
$50k–$150k:Metal X becomes very interesting, particularly for a machine shop.
$100k+ and you need production-quality metal: I'd seriously consider LPBF, particularly Xact Metal/One Click Metal rather than buying a bound-metal machine just because it's cheaper.
You want stainless/tool steel parts for your own shop:Metal X is my first recommendation.
You want aerospace/medical-grade parts or very fine complex geometry: skip the inexpensive bound-metal machines and look at laser powder-bed fusion.
Desktop Metal's current Studio System 2 is another particularly easy option: 300 × 200 × 200 mm build area, a two-step print/sinter workflow, and a 1,400°C furnace.
If you give me your budget (e.g. $10k, $50k, $100k, $250k+), what metals you want to print (stainless, aluminum, titanium, Inconel, tool steel, etc.), and your desired part size, I can narrow this down to 2–3 machines and compare the actual purchase + operating costs.
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:
Best Professional Desktop Bound-Metal System: Raise3D Forge1
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.
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.
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?
Metal 3D printers are available in several very different categories, from compact systems for prototyping metal parts to industrial machines that produce aerospace-grade components. The best choice depends on your budget, the size of your parts, the metal you want to print, and whether you're running a workshop or a production facility.
One important distinction: some machines print metal powder directly using lasers, while others print metal-bound material that must undergo debinding and sintering in a separate process. The latter can be more practical for smaller shops, while direct metal laser printing is generally better suited to demanding, high-performance parts.
Metal 3D printers worth considering
1. Raise3D Forge1
(Small shop option)
About $10,000
Uses metal-filled filament, making it a more accessible entry point for prototyping and small-batch metal parts. Parts require post-processing, including debinding and sintering.
Best for: workshops, engineering projects, and people getting started with metal printing.
Prints metal-bound filament and uses a separate debinding and sintering workflow. The complete setup is more important than the printer alone when budgeting.
Best for: manufacturing tools, brackets, fixtures, and functional metal components.
Indicative pricing; request a current package quote.
An established industrial LPBF platform with a 250 × 250 × 325 mm build volume. Suitable materials depend on the machine configuration and qualified process parameters.
Best for: demanding engineering parts, medical manufacturing, aerospace, and production environments.
Budget for industrial installation, powder handling, and post-processing.
These are indicative prices, not guaranteed current quotes. Also budget for furnaces, consumables, installation, safety equipment, and machining or finishing where required. Metal powder systems in particular need appropriate fire, dust, and exposure controls.
To determine the right system, it helps to narrow down your application, material needs, and workflow preferences.
Notable Metal 3D Printing Systems
Raise3D Forge1: A desktop-scale professional system that utilizes metal filaments (such as BASF Ultrafuse) combined with a post-printing debinding and sintering workflow. It is well-suited for producing functional industrial parts without requiring a full powder bed fusion setup.
Markforged Metal X (Gen 2): An office-friendly, safe, and end-to-end atomic diffusion additive manufacturing system that prints metal powder-infused filaments, followed by washing and sintering stages.
Desktop Metal Studio System: A 6-figure office-safe bound metal deposition (BMD) system designed to print safe metal parts in an office environment rather than a traditional factory floor.
HP Metal Jet S100
Industrial LPBF Systems (e.g., SLM Solutions, EOS, or 3D Systems): High-end Laser Powder Bed Fusion machines used for direct, high-density manufacturing of aerospace and medical grade components with massive capital investment requirements.
Watch this overview of leading metal 3D printing choices to see how different technologies compare for production and prototyping: