Tag: Binder Jet 3D Printing

  • Binder Jetting Breakthroughs: Production Economics, Sintering and Company Exposure

    Binder Jetting Breakthroughs: Production Economics, Sintering and Company Exposure

    Updated 12 September 2026. This revision replaces the earlier 2022–2025 narrative with a source-linked production assessment.

    Metal binder jetting selectively deposits a binder into a powder bed to form a fragile green part. The subsequent thermal route consolidates the metal. Its commercial potential depends on handling yield, sintering control and accepted-part cost as much as printing speed.

    What has become commercially concrete?

    HP offers Metal Jet configurations covering development and production, with curing, powder handling and furnace operations forming part of the workflow. This is evidence of an offered industrial platform, not proof of profitability for every application. HP Metal Jet configurations and workflow.

    Binder jetting vs LPBF: compare the whole route

    Decision factorMetal binder jettingMetal LPBF
    ConsolidationBinder forms the green shape; sintering consolidates metal later.Metal melts and solidifies during printing.
    Geometry constraintsGreen-part strength, depowdering access, shrinkage and sintering distortion.Supports, thermal distortion, recoater clearance and powder escape.
    Production constraintCuring, handling, furnace loading and sintered-part yield may limit output.Build time, powder handling and downstream operations may limit output.
    Finished-part evidenceDensity, chemistry, dimensional capability and properties after the full thermal route.Properties after the specified build, thermal and finishing route.
    Commercial comparisonCompare total accepted-part cost against MIM, machining and casting.Compare total accepted-part cost and system-level design benefit.

    Five gates before calling an application production-ready

    1. Material: qualify the actual powder, binder and thermal combination. A material demonstration is not universal alloy availability.

    2. Handling: measure breakage during green-part extraction, transfer and loading. Printing without attached supports does not eliminate handling fixtures or sintering setters.

    3. Sintering: validate shrinkage compensation, distortion, carbon and oxygen control, density and furnace load consistency across representative geometries.

    4. Part release: establish dimensional inspection, surface condition, defect acceptance and mechanical-property evidence appropriate to the application.

    5. Economics: include labor, fixtures, furnace occupancy, machining, inspection, scrap and qualification costs. Avoid universal claims about speed, energy savings or break-even volume.

    Use accepted parts as the economic denominator

    For a defined production batch, divide all allocated production and quality costs by the number of released, conforming parts. Compare alternatives using the same geometry, annual volume and acceptance criteria. A faster print stage can simply move the queue to the furnace.

    Which companies are relevant?

    CompanyRoleFinancial evidence to seek
    HP Inc.Metal Jet platform and production ecosystemCustomer production adoption, recurring consumables/service demand and materiality within the broader company.
    Carpenter TechnologyMetal powder capabilitiesGrade-specific qualification, repeat powder purchases and economically meaningful revenue exposure.

    Technical sources: HP Metal Jet and Carpenter Additive. The powder-supplier example is a supply-chain research candidate; it does not establish a supplier relationship for a particular HP installation.

    Company exposure is a research starting point, not a stock recommendation. A relevant technology does not establish material revenue, attractive margins or a reasonable valuation. Check current filings, ownership, cash flow and customer concentration before drawing an investment conclusion.

    What would change the assessment?

    Stronger evidence would include named repeat-production applications, measured yield across multiple furnace loads, independent property data for the specified route and orders converted into cash. A demonstration part or announced capacity alone is weaker evidence.

    Read next: Binder jetting vs LPBF and accepted-part cost.

    Take the next step: the free AM Bottleneck Atlas

    Assess binder jetting through the full production route. The Industrial AM Bottleneck Atlas 2026 connects manufacturing constraints with qualification, economics and company exposure.

    Get the free Atlas and subscribe to the AM Bottleneck Brief →

    Confirm your email after subscribing. See the Atlas page for delivery details.

  • Desktop Metal and Sandvik Additive Manufacturing Qualify Copper Alloy C18150 for Production System™: Joint Automotive Project Unveiled at AMUG 2023

    Desktop Metal and Sandvik Additive Manufacturing Qualify Copper Alloy C18150 for Production System™: Joint Automotive Project Unveiled at AMUG 2023

    Desktop Metal, in partnership with Sandvik Additive Manufacturing and a top five global automaker, has announced that copper alloy C18150, also known as chromium zirconium copper, has been DM Qualified for binder jet 3D printing on the Production System. This material is commonly used in electrical and electronic components due to its high-strength and high-conductivity properties. The automaker is testing a unique 3D printed part design, which is being developed for a future production application, in C18150 using Sandvik’s Osprey metal powder. The companies will discuss details of this joint automotive project during a presentation at AMUG 2023 in Chicago. With the addition of C18150, Desktop Metal now offers a world-leading 23 metal materials on its binder jet 3D printing systems, including the Shop System, Production System, and X-Series platforms.

    Chromium zirconium copper offers a combination of strength, conductivity, and corrosion resistance that makes it suitable for a wide range of industrial and commercial applications. The material has now been qualified for use on the high-speed Printing System platform in collaboration with Sandvik Additive Manufacturing, who provided C18150 powder that routinely delivered as-sintered densities of 98-99% when printed on the P-1. The automaker will scale a part design in C18150 for serial production on the Production System P-50 after additional development.

    Chromium zirconium copper parts via Desktop Metal

    Desktop Metal’s founder and CEO, Ric Fulop, expressed pride in announcing the qualification of chromium zirconium copper as a qualified material, bringing the company’s world-leading portfolio of binder jet materials to 23 metals. He also highlighted the simultaneous announcement of 304L qualification on the Shop System and Ti64 customer-qualification on the Production System. The company’s experts are collaborating with customers on application-specific material and part qualification projects for future Additive Manufacturing 2.0 production.

    Desktop Metal Production System

    Desktop Metal’s binder jet technology can 3D print almost any powder. The company has a tiered material qualification system for metals to signify the varying levels of material property results produced by its technology. DM Qualified signifies printing and sintering profiles developed by DM, with fully characterized material and mechanical properties that meet MPIF or other similar standards where available. Customer-Qualified materials have been qualified by customers with their own standards and are being successfully printed for their own applications. R&D Materials signify initial testing completed by DM demonstrating binder and process compatibility, with printing and sintering profiles under final development.

    The Production System platform features high-speed Single Pass Jetting (SPJ) technology on two models: the P-1, for research and development of binder jetting projects for serial production, and the P-50, the world’s fastest metal binder jet system, offering the lowest cost per part, with SPJ technology. With C18150 qualification, the Production System now offers a wider range of options for customers seeking to use copper alloys in their products.

    Desktop Metal and Sandvik will provide an update on binder jetting of Ti64 and Al6061 at AMUG 2023. The companies will also discuss details of the automotive project during a panel discussion from 1:30-2:30 p.m. on Thursday, March 23, in the Joliet Room at the Hilton Chicago.

    In conclusion, Desktop Metal’s qualification of copper alloy C18150 for binder jet 3D printing on the Production System, in collaboration with Sandvik Additive Manufacturing and a top five global automaker, represents a significant milestone in the company’s efforts to provide a world-leading portfolio of binder jet materials to its customers. The partnership has demonstrated the capabilities of binder jetting in the production of complex parts in copper alloys, opening up a range of applications in thermal transfer and other