Блог

Subframe connection mounts and blocks now sit at the center of EV platform integration and motorsport agility. By leveraging laser powder bed fusion (LPBF) and electron beam melting (EBM), Metal3DP delivers lightweight, topology-optimized subframe interface components with integrated ribs, mounting lugs, and internal features that traditional forging or casting can’t

Metal3DP Technology Co., LTD delivers one-stop metal 3D printing solutions for U.S. automotive and e‑mobility programs that need topology-optimized, lightweight structural parts and brackets—especially suspension control arms, subframe connection blocks, damper mounts, and brake caliper brackets. Leveraging laser powder bed fusion (LPBF), electron beam melting (EBM), and directed energy deposition

Introduction to Metal 3D Printed Nozzle Vane Segments In the relentless pursuit of enhanced efficiency and performance in critical machinery, the role of precision-engineered components cannot be overstated. Among these, turbine nozzle guide vane segments stand as vital elements, directing the high-temperature, high-pressure gas flow onto the turbine blades with

Introduction – Revolutionizing Automotive Sensor Integration with Metal 3D Printing The integration of advanced driver-assistance systems (ADAS) and autonomous driving technologies is rapidly transforming the automotive industry. At the heart of these systems lie critical sensors, including radar, which demand precise and reliable mounting solutions. Traditional manufacturing methods for these

The exploration and monitoring of underwater environments rely heavily on the performance and longevity of hydrophones. These sensitive acoustic sensors are deployed in diverse and often harsh conditions, demanding robust and reliable protective housings. Traditionally manufactured housings can face limitations in design complexity, material suitability for corrosive environments, and production

Introduction In the demanding realm of space exploration, every component must exhibit unparalleled reliability, minimal weight, and exceptional performance. Spacecraft antenna supports, critical elements for communication and navigation, are no exception. Traditionally manufactured through subtractive methods, these supports often face limitations in design complexity, material efficiency, and lead times. However,