Industrial Technology

Back to Parts Manufacturing Raw material is the first gatekeeper in the metal additive manufacturing quality chain. Powder shape, particle size, oxygen levels, and flow performance directly determine part density, strength, and batch stability. This guide walks through how metal raw materials are made, tested, selected, and recycled. 1. Raw Material Formats and Process Matching […]

Section 1: Introduction to WAAM and Thermal Management What is Wire Arc Additive Manufacturing (WAAM)? Wire Arc Additive Manufacturing (WAAM) is a metal 3D printing process that combines standard gas metal arc welding (GMAW) equipment with multi-axis industrial robot arms. Instead of melting expensive metal powders with lasers, WAAM feeds commercial metal wire into an

Written by Felix Lee, CEO at ForgecisePublished: July 31, 2026Last updated: July 31, 2026Expertise: Metal Additive Manufacturing | Robotic Welding | Industrial Automation Quick Answer Wire Arc Additive Manufacturing, or WAAM, is a directed energy deposition process that uses an electric arc to melt metal wire and build near-net-shape components layer by layer. It is

1. What is Wire Arc Additive Manufacturing? Building huge metal parts like rocket fuel tanks, ship propellers, and crane arms used to take months of heavy forging and cutting. Today, engineers build these same large parts in days using Wire Arc Additive Manufacturing (WAAM). WAAM is a direct energy deposition (DED) process. It combines standard

Written by Felix Lee, CEO at Forgecise Expertise: Advanced Manufacturing | Industrial Automation | Metal Additive Manufacturing Published: July 30, 2026Last Updated: July 30, 2026 Quick Answer Wire Arc Additive Manufacturing (WAAM) is a metal 3D printing technology that uses an electric arc heat source to melt metal wire layer by layer, creating large and

Written by Felix Lee, CEO at ForgecisePublished: July 2026Last Updated: July 2026 Quick Answer A 3D printed 6G antenna uses metal additive manufacturing to create complex high-frequency structures that are difficult to build with traditional machining. A 220GHz antenna design combines signal filtering, power distribution, and radiation in one metal structure, producing 16 signal outputs

By Felix Lee | CEO at Forgecise Published on June 12, 2026 • Reading Time: 8 min (~1,700 words) Reviewed by: Additive Manufacturing & Microelectronics Editorial Team Fast Answer Box What is ceramic 3D printing in the semiconductor industry? > It is an additive manufacturing process—mainly using SLA and DLP light techniques—that builds high-precision ceramic

1. Fast Facts: Key Features at a Glance 2. A Real Shift in Shop-Floor 3D Scanning For years, people measuring large mechanical parts had to make tough choices. You could pick a precise tool, or you could pick a fast, easy tool. Getting both was hard. Old high-precision tools come with three main annoyances: On

AI is changing 3D printing from a tool used mainly for prototyping into a smarter manufacturing system. WAIC 2026 showed how artificial intelligence is entering every stage of additive manufacturing, including 3D design, engineering simulation, printing process control, and factory automation. The next generation of 3D printing will combine AI models, industrial software, advanced computing,

Published Date: July 29, 2026Last Updated: July 29, 2026 Author: Felix Lee, CEO at Forgecise Felix Lee is the CEO at Forgecise, focusing on advanced manufacturing technologies and industrial production solutions. His work covers the connection between ceramic additive manufacturing, engineering applications, and next-generation semiconductor technologies. Through his experience with advanced manufacturing systems, Felix Lee