General Pattern shares its experience as one of the manufacturing partners for MakeGood, the organization behind the design and distributed manufacturing of life-changing Toddler Mobility Trainers.
The collaboration brings together Oakland University's School of Engineering and Computer Science and Automation Alley's Project DIAMOnD Digital Transformation Center to accelerate additive manufacturing innovation, workforce development and digital manufacturing across Michigan.
Superfeet is leveraging 3D printing to manufacture personalized performance insoles based on customers’ individual biometric scans.
The Navy's newly approved Project Peculiar Document PPD 802-8436658 establishes a streamlined technical pathway for substituting legacy cast and wrought parts with additively manufactured metallic components across submarine construction, maintenance and combat-ready repair.
Housed for the first time in the South Building, the Additive Sector reinforces AM’s role as a production technology that complements other processes. Six AM categories to investigate at this year’s show.
3D Systems and Savannah River National Laboratory formalize a Cooperative Research and Development Agreement (CRADA) targeting materials development, AI/ML process optimization and scalable production solutions for nuclear energy and national security missions.
Following its successful Austin, TX debut, CONTRAX invites contract manufacturing parts, components and services buyers from across the industrial supply chain to register.
U.S. manufacturing policy is being decided now—and it will directly affect your costs, supply chain, and competitiveness. Your voice can help shape what comes next. Complete the 2026 Reshoring Survey today to inform policymakers and strengthen U.S. manufacturing. All respondents receive final results for benchmarking purposes.
There are absolutely cases where additive manufacturing makes sense, but don’t let it be the only tool in your toolbox.
GROW Industrial is the newly formed marketing services arm of Gardner Business Media. Offering custom content, marketing, creative, research, and data services, GROW Industrial expands and builds on the company’s deep first-party reach into the discrete parts manufacturing sector.
Additive’s agnosticism with regard to part geometry makes it possible for the same equipment to serve many potential needs. Manufacturers who capitalize on this capability can use AM to diversify into new markets.
Uptive Manufacturing has its roots in AM’s Wild West entrepreneurial past, but today it helps customers of all sizes use the technology as a strategic manufacturing option.
Stratasys and Limbitless Solutions, a nonprofit at the University of Central Florida, are deepening a 12-year collaboration focused on sustainability, education and expanding access to bionic prosthetic devices for children.
The Hawaiian startup and CEAD developed a demonstration platform using LFAM, which is informing Voltage Vessels’ basalt fiber-reinforced PETG material developments.
The SUMMSEED project, led by the Technical University of Catalonia - BarcelonaTech, is developing medium manganese steels for wire-based DED. Potential outcome: The project aims to create an alternative to Hadfield steels with reduced CO2 footprint.
The company’s first LFAM microfactory using composites transforms supply chains, enables local manufacturing and circularity across industries.
OEM and social enterprise re:3D develops large-format 3D printers in the U.S. with a focus on sustainability, upgradability and enabling economic independence anywhere.
The flight-tested, 3D printed hinge in this week’s Pic is made from recycled titanium, which was recovered from a decomissioned aircraft.
The National Institute of Standards and Technology introduces Reference Material 8047, a standardized photoactive resin developed with the Photopolymer Additive Manufacturing Alliance to improve measurement consistency and reproducibility in photopolymer additive manufacturing.
Dyndrite has been selected as a participant in two funded technical efforts under the America Makes Delta Qual 2.0 program, a $9 million initiative focused on modernizing qualification methodologies for laser powder bed fusion.
In a study led by RMIT’s Center for Additive Manufacturing, Australian engineers have created a strong, lightweight and buoyant titanium material to improve marine infrastructure.
Continuum Powders and Mastrex are working together to develop optimized processing parameters and repeatable print performance across Mastrex's MX series laser powder bed fusion machines, targeting cobalt chrome, Ti-6Al-4V and 17-4 stainless steel as initial materials.
IperionX Limited has received a second task order under its $99 million SBIR Phase III contract for Low-Cost, Domestic Titanium for Defense Applications, with $11.5 million currently funded and a maximum potential value of $25.4 million.
Demand for new and renewable energy sources is rising and meeting it will require power sources that do not yet exist at scale. Nuclear fusion, the reaction that powers the sun and other stars, is among the most promising. Sustaining a continuous fusion reaction depends on components that survive inside the reactor, specifically in the divertor area where Tungsten tiles funnel waste particles and heat away from the plasma. Although Tungsten is an excellent candidate material due to its high melting temperature and thermal conductivity, combined with low tritium retention and the lowest nuclear activation of the materials available, it is also among the hardest metals to manufacture. Poor machinability and low temperature brittleness make the slotted, pocketed tile geometries costly or impossible to machine and laser powder bed fusion struggles to print Tungsten without cracking. Electron beam powder bed fusion resolves this by changing the thermal environment in which Tungsten is melted: the process runs under high vacuum, protecting a metal that oxidizes readily at temperature and the electron beam is defocused and rastered across the powder bed to hold it well above Tungsten's ductile-to-brittle transition before and after every melt pass. Material stays ductile throughout the build and the result is near fully dense Tungsten free of microcracking, with the design freedom that divertor tile geometries demand.In this webinar, Jonathan Buckley from JEOL USA will present results from reactor testing of Electron Beam Powder Bed Fusion divertor tiles, which survived exposure with minimal damage. The manufacturing of these Tungsten divertor tiles, from powder to finished product, will be shown along with details on the testing and results. This material is based upon work supported by the U.S. Department of Energy, Office of Science, Office of Fusion Energy Sciences, using the DIII-D National Fusion Facility, a DOE Office of Science user facility, under contracts DE-FC02-04ER54698, DE-AC05–00OR22725 with UT-Battelle LLC, DE-NA0003525 with NTESS under DOE NNSA and DE-AC02-09CH11466.
Powder metallurgy has been the default manufacturing route for tungsten because of its scalability and process maturity. However, it carries fundamental constraints such as long lead times tied to tooling, multiple required processing steps and susceptibility to internal defects that limit design flexibility and performance in demanding applications.Electron beam powder bed fusion, or EB-PBF, offers an alternative route for manufacturing pure and alloyed tungsten parts. By processing tungsten layer by layer in a vacuum at elevated temperatures, EB-PBF avoids the oxidation, cracking and porosity mechanisms that complicate conventional tungsten manufacturing. By manufacturing with EB-PBF, tungsten parts can be made for high-density, high-temperature applications such as hypersonics, kinetic penetrators and radiation shielding.The webinar will provide a comparison of both processes, covering mechanical and material properties, design considerations and end-to-end manufacturing workflow. Attendees will leave with a framework for evaluating which route fits their application requirements.AgendaPowder metallurgy process for tungsten: Where it works well and what fundamental constraints limit part performance and design flexibility.Electron beam powder bed fusion for tungsten: How a tungsten 3D printing process addresses challenges in cracking, oxidation and internal defects that have made tungsten manufacturing difficult.Side-by-side comparative analysis: An evaluation of both manufacturing processes and which applications are most suitable for powder metallurgy versus EB-PBF.
Artificial intelligence (AI) techniques, including machine learning, are increasingly integrated into additive manufacturing workflows to interpret process data and analyze large datasets, such as layer-by-layer powder bed images. In powder bed fusion (PBF), each layer can be imaged and analyzed, providing a basis for data-driven assessments of process stability and part quality. In situ backscattered electron (BSE) imaging serves as an effective inspection technique, utilizing backscattered electron contrast from the solidified layer to detect density variations, cracking, and surface features.By combining machine learning with electron beam-based imaging, this approach demonstrates the potential for scalable, in-situ defect detection in additive manufacturing. It establishes the groundwork for future remelting strategies capable of using melt pool depth to close previously detected defects above a certain threshold in the next layer.AgendaOverview of how a supervised learning approach enables automated defect detection using sequential BSE image datasets, applicable for defect detection in serial production.Discussion of the model training process on a manually annotated dataset, allowing the model to associate BSE data with defect likelihood.Explanation of the inference process, where the trained detector evaluates new layer images, locates regions of interest, and outputs bounding boxes with associated confidence scores to assess defect likelihood.Assessment of model performance through precision and recall metrics, ensuring reliable identification of actual defects while minimizing false positives.
Powder bed fusion is a leading additive manufacturing technology for producing high performance parts with excellent mechanical and material properties. Among its variants, electron beam powder bed fusion (EB-PBF) stands out for its unique advantages, such as a vacuum print environment, powder bed preheating, layer by layer backscattered electron imaging and high energy density for refractory alloys. This webinar provides an in-depth technical exploration into how the electron beam in EB-PBF works, focusing on the physics and control systems behind the electron beam. This will include advanced electron beam capabilities, such as beam shaping, charge neutralization and melt pool correction strategies enabled by patented technologies. Agenda: How electron beams are generated and controlled for additive manufacturing and other industrial applications Key hardware innovations that drive melt pool stability and beam control Lessons from electron microscopy/lithography expertise that now power AM hardware How EB-PBF can print fully dense Tungsten and refractory alloys at extremely high melting temperatures
New this year, Top Shops Conference will expand to include CNC machining and industrial finishing. Modern Machine Shop Top Shops and Products Finishing Top Shops, Gardner Business Media’s two largest and longest running benchmarking and business improvement survey programs, will join forces to host concurrent Top Shops Conference programs. In addition to dedicated conference programming, Top Shops Conference attendees will benefit from access to several shared general sessions, keynotes, exhibit rooms and special networking events enabling these two critical manufacturing service groups – CNC machining and industrial finishing - to learn, exchange ideas and make valuable business connections.
Join more than 2,000 professionals from October 7–9, 2026, at the WIM SUMMIT in Las Vegas for three days of learning, connection and inspiration.The WIM SUMMIT is where the manufacturing community goes ALL IN. It brings together professionals from across the industry and around the world for a dynamic experience focused on learning, networking and real conversations about what’s next in manufacturing. Whether you’re leading a team, growing your career or navigating change, the WIM SUMMIT is designed to meet you where you are.This year’s theme, ALL IN, is about showing up for the future of manufacturing together. As technology evolves, workforce needs shift, and the industry continues to change, moving forward takes new ideas and a shared commitment to what’s ahead. At the WIM SUMMIT, we’ll dig into what it means to go ALL IN – on talent and workforce strategy, smart manufacturing and AI, operational excellence, safety, sustainability, and wellbeing. WIM SUMMIT attendees will come away with practical takeaways, new perspectives, and connections that make an impact long after the event ends.
The European Federation for Welding, Joining and Cutting (EWF) is hosting the third edition of its Professionals of the Future (POTF) event. Building on EWF's commitment to international sectoral education and training, this year's edition explores the theme of artificial intelligence (AI): "Tools, Skills and Industrial Transformation."
CONTRAX events connect buyers and suppliers of American contract manufacturing services. From concept to contract, CONTRAX showcases North America’s premier industrial parts producers and service providers – leaders in design engineering, 3D printing and prototyping, CNC machining, casting, metal forming and fabricating, injection molding, surface treatment, parts finishing and systems integration. CONTRAX mission is to grow North American manufacturing by showcasing suppliers equipped to support the growing demand for advanced manufacturing production and services. Businesses looking to expand their supply base, take product to market or address production, services, reshoring, onshoring or nearshoring needs can turn to CONTRAX to find the companies, content and insights for solving and staying ahead of supply chain challenges.
MD&M hosts MD&M Midwest 2026 on Oct. 28-29, 2026 in Minneapolis, MN.
Why is tungsten a desirable material for nuclear fusion and other demanding applications? And why is electron beam melting a good match for this refractory metal? We answer these questions and more in this follow-up to episode #87.
Researchers at Oak Ridge National Laboratory are simultaneously exploring fusion technology and the use of electron beam melting to produce components this process will require. An example in this episode.
Can an aluminum DED pressure vessel withstand conditions up to and beyond those it was designed to handle? And how far could it be pushed? In this video, we collaborate with Big Metal Additive and Stress Engineering to discover the answers.
Large-format fused granulate fabrication (FGF) is enabling Ipex to manufacture its Vortex Flow insert in a quarter of the time, with less manual labor and better opportunity to customize.
Addman Advanced Metals has scaled from a single 3D printer to 25 while also building out a robust array of subtractive machines. In this video, find out how the shop manages its additive and subtractive workflows — and how it combines the two into a profitable niche.
The Institute Digital Additive Production (DAP) at RWTH Aachen University releases DAPComputationalGeometry, an open-source computational geometry library designed to improve performance, reduce memory consumption and accelerate data preparation in additive manufacturing CAM software development.
Volkmann USA introduces the vDryer vacuum drying module for the vLoader 250 powder conveyor, restoring moisture-affected metal powders to a defined moisture level before delivery to additive manufacturing equipment.
Italian deep-tech startup NUGAE used its CoreLight3d proprietary thermoplastic foam and UL-LFAM process to produce a living cell for a Piaggio Ape TM 703 camper weighing roughly 70 kg — compared to approximately 200 kg for an equivalent fiberglass build.
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