Lasertec 125 is a laser deposition welding machine with machining capabilities that meets the requirements of maintenance, repair and production applications for large-scale parts.

The aerospace industry is increasingly adopting metal additive manufacturing (AM) for both flight safety-critical aircraft parts and non-critical flight parts.

Solar Manufacturing built and shipped two furnaces to Tennessee for use in the medical and additive-manufacturing industries. The furnaces feature metallic-insulated hot zones, a load capacity up to 2,000 pounds and a maximum operating temperature of 2400°F (1315°C). Measuring 24 inches wide x 24 inches high x 48 inches deep and 24 inches wide x 24 inches high x 36 inches deep respectively, each furnace was designed with the SolarVac Polaris control system.

Samuel, Son & Co., a metals distributor and industrial products manufacturer, acquired all remaining shares of Burloak Technologies. Oakville, Ontario-based Burloak provides engineering and designs for additive manufacturing, materials development, high-precision CNC machining, post-processing and metrology. The company works with companies in the space, aerospace, automotive and industrial markets to rapidly transition their most challenging part designs to be additively manufactured at scale. Samuel originally acquired a minority stake in Burloak Technologies in 2017.

The Sintervac AM line of vacuum and controlled-atmosphere furnaces is designed for binder‐jetted 3D-printed and additive-manufactured parts.

Welcome to the nonferrous issue. In February, our goal is to ferret out content focused on anything but steel.

Of the high-tech stories out there today, additive manufacturing (AM) tops them all.

QuesTek Innovations LLC and the German Aerospace Center, in a joint effort, will explore the full potential of QuesTek’s new printable aluminum (Al) alloy, which was developed for additive manufacturing (AM). The alloy is capable of high-strength performance at elevated temperatures (200-300°C/392-572°F) in the as-built condition. It is believed to be the first powdered AI material to meet those requirements without the need for subsequent heat treatment. The alloy will enable the printing of lighter-weight precision components not currently possible with traditional manufacturing methods, including heat exchangers or other components requiring internal cooling channels.

Stack Metallurgical Group, after installing a hot isostatic press (HIP) earlier this year, is redoubling its commitment to the technology with the addition of a second HIP from Quintus Technologies. The unit has a work zone of 26 inches (660 mm) in diameter and 68.9 inches (1,750 mm) in height. It follows the installation in January of a high-capacity Mega-HIP, which has a work zone of 63 inches (1,600 mm) in diameter and 102 inches (2,591 mm) in height. The new press, which operates at a maximum temperature of 2552°F (1400°C) and a maximum pressure of 30,000 psi (2,070 bar), will be installed at Stack’s recently completed facility in Albany, Ore. Both systems are equipped with the Quintus proprietary uniform rapid cooling (URC) feature, which combines HIP and heat treatment in a single process.

Carpenter Technology Corp. opened its 500,000-square-foot Emerging Technology Center (ETC) in Athens, Ala. It will provide the capability to atomize a range of specialty alloys into metal powder and manufacture the powder into finished parts using AM technology (3D metal printing). The ETC’s downstream equipment for taking the initially produced part to a final finished product includes a hot isostatic press (HIP) system and vacuum heat treating to optimize the material properties of high-value specialty alloy components. Carpenter Technology has invested approximately $40 million to date in the ETC and is expected to create about 60 jobs over the next five years.