Shouyu

High-temperature industrial torches heating a curved metal part during post-processing heat treatment to relieve stress and refine microstructure.

Metal 3D Printing Heat Treatment: The Complete Guide to Post-Processing Excellence

Back to Parts Manufacturing Author: Felix Lee, CEO at Forgecise Published Date: August 7, 2026 Read Time: 8–9 minutes (1,820 words) Target Audience: Additive Manufacturing Engineers, Metallurgy Specialists, Product Designers, Aerospace Quality Managers Quick Answer Box What is heat treatment in metal 3D printing? > Heat treatment for metal 3D printed parts is a thermal

Metal 3D Printing Heat Treatment: The Complete Guide to Post-Processing Excellence Read More »

Operator removing residual powder from a metal 3D printed part inside a sealed glovebox using compressed gas.

Metal 3D Printing Powder Removal: Methods, Safety, and Inspection

Back to Parts Manufacturing Last updated: August 7, 2026 Written by Felix Lee, CEO at Forgecise Metal 3D printing powder removal, also called depowdering, removes loose and trapped powder from SLM and LPBF parts before heat treatment, machining, pressure testing, or final use. The main methods include tapping, vibration, gas blowing, vacuum extraction, abrasive flow

Metal 3D Printing Powder Removal: Methods, Safety, and Inspection Read More »

High precision metal 3D printed mold component on a build plate made with selective laser melting

Metal 3D Printing Laser Process: The Engineer’s Guide

Back to Parts Manufacturing By Felix Lee | CEO at Forgecise Published: August 6, 2026 Executive Summary (TL;DR) > Laser formation is the core physical process of metal 3D printing, especially Selective Laser Melting (SLM). To build dense, low-stress parts, engineers must balance energy input, control liquid melt pools, and manage thermal strain. This guide

Metal 3D Printing Laser Process: The Engineer’s Guide Read More »

Rows of industrial metal manufacturing machines lined up inside a modern production facility floor.

Metal 3D Printing Pre-Processing: 10 Steps to SLM Success

Back to Parts Manufacturing What is SLM Pre-Processing? SLM pre-processing covers all digital and machine steps you take before firing the laser in metal 3D printing. It includes repairing CAD files, setting part angles, designing support structures, setting laser energy values, and checking the machine bed. Proper preparation stops print failures, cuts material waste, and

Metal 3D Printing Pre-Processing: 10 Steps to SLM Success Read More »

Array of complex metal 3D printed industrial components including a multi-flanged aero-engine nozzle, turbine impeller, and thin-walled structural parts.

Metal 3D Printing Raw Materials: Powder Selection, Quality Control, and Recycling

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

Metal 3D Printing Raw Materials: Powder Selection, Quality Control, and Recycling Read More »

Multi-axis metal 3D printing tool head positioning near a printed curved turbine component on a rotary platform.

Wire Arc Additive Manufacturing (WAAM): Process Parameters, Path Planning, and Closed-Loop Control

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

Wire Arc Additive Manufacturing (WAAM): Process Parameters, Path Planning, and Closed-Loop Control Read More »

Alt Text: Industrial robotic arm using Wire Arc Additive Manufacturing to deposit metal layer by layer onto a large curved component in a bright modern factory.

Wire Arc Additive Manufacturing: WAAM Processes, Equipment, and System Architecture

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

Wire Arc Additive Manufacturing: WAAM Processes, Equipment, and System Architecture Read More »

Robotic arm using Wire Arc Additive Manufacturing to build a large layered metal component with an electric arc in a bright industrial workshop.

Wire Arc Additive Manufacturing (WAAM): A Clear Guide

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

Wire Arc Additive Manufacturing (WAAM): A Clear Guide Read More »

A industrial robot arm using Wire Arc Additive Manufacturing (WAAM) technology to 3D print a large metal component in a modern workshop with data screens.

Wire Arc Additive Manufacturing (WAAM): Process, Materials, Challenges, and Industrial Applications

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

Wire Arc Additive Manufacturing (WAAM): Process, Materials, Challenges, and Industrial Applications Read More »

3D printed metal antenna prototype for 6G wireless communication technology operating at 220GHz millimeter-wave frequencies, showing precision waveguide structures and advanced RF components.

3D Printed 6G Antennas: How 220GHz Technology Could Shape Future Wireless Communication

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

3D Printed 6G Antennas: How 220GHz Technology Could Shape Future Wireless Communication Read More »