From crack-free molybdenum MoC0.4 to conductive, anodizable aluminum Aheadd CP1—and ultrafine, user-driven powder production with ultrasonic atomization
From crack-free molybdenum MoC0.4 to conductive, anodizable aluminum Aheadd CP1—and ultrafine, user-driven powder production with ultrasonic atomization
From shredded scraps to repurposed spool Fiberthree circular process slashes CO2 emissions by up to 90 percent, with recycled filament priced equal to new material.
Soldering wires is the process of joining electrical conductors using a melted filler metal to create strong, low-resistance connections. This guide explains tools, techniques, heat control, materials, common defects, and engineering best practices for reliable electrical connections.
This article discusses what attendees can expect from TCT Asia 2026, including its conference format, focus areas, and the experts contributing to industry-specific discussions.
This article discusses the exhibitors, products, and industrial trends defining additive manufacturing across the Asia-Pacific region at TCT Asia 2026.
This article discusses how the Asia-Pacific region is advancing additive manufacturing and the role of TCT Asia as the leading 3D printing and additive manufacturing event in the Asia-Pacific.
Lightweighting materials play a crucial role in offering the potential for improved fuel efficiency, enhanced performance, and reduced emissions in the automotive industry. It is anticipated that the lighter and more efficient automotive materials and components will revolutionize the industry in the coming years.
From crack-free molybdenum MoC0.4 to conductive, anodizable aluminum Aheadd CP1—and ultrafine, user-driven powder production with ultrasonic atomization
From shredded scraps to repurposed spool Fiberthree circular process slashes CO2 emissions by up to 90 percent, with recycled filament priced equal to new material.
Giving a second life to construction materials after demolition, engineers at the University of São Paulo and Princeton have developed an approach for recycling cement waste into a sustainable, low-carbon alternative that is comparable in performance to the industry standard.
In this episode, we discuss how Harvard researchers cracked the code of 3D printing “shapeshifting” materials and why their efforts lay the groundwork for other innovations in the material science field.
Microwave synthesis produces MXene 25x faster than traditional methods while using 75% less energy, according to new research from the Department of Mechanical Engineering.
3D printing materials filled with precise quantities of nanoparticles are making a profound impact on industries like electronics, healthcare, and aerospace
In this episode, we chat about the efforts of researchers at ETH Zurich to dehumidify indoor spaces using waste material in an effort to reduce energy consumption & help Switzerland hit their net zero emissions goal by 2050!
Nanoinks and nanopastes are composed of nanoparticles suspended in a solution or paste. These materials can be printed or applied to surfaces with extreme precision, making them ideal for electronic manufacturing.
A new test developed at the University of Illinois Urbana-Champaign can predict the performance of a new type of cementitious construction material in five minutes — a significant improvement over the current industry standard method, which takes seven or more days to complete.