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A realistic scientific visualization of Laser Powder Bed Fusion (LPBF) defect prediction showing a titanium alloy powder bed, laser melting process, melt pool dynamics, and a Defect Structure Process Map. The image illustrates key manufacturing defects including lack-of-fusion, keyhole porosity, and gas porosity, along with laser power, scan speed, hatch spacing, and physics-based simulation models.

LPBF Defect Structure Process Maps: Predicting Lack-of-Fusion, Keyholes, and Gas Porosity in Ti-6Al-4V

By Felix Lee, CEO at Forgecise Expert Review & Fact-Checked by Forgecise Metallurgical Research Group Last Updated: July 25, 2026 Quick Summary What is a Defect Structure Process Map (DSPM) in LPBF? A Defect Structure Process Map (DSPM) is a physics-based chart that plots laser power ($P$), scan speed ($V$), and hatch spacing ($H$) to […]

LPBF Defect Structure Process Maps: Predicting Lack-of-Fusion, Keyholes, and Gas Porosity in Ti-6Al-4V Read More »

A realistic scientific visualization of Laser Powder Bed Fusion (LPBF) showing a high-power laser melting a Ti-6Al-4V powder bed, with vapor jets, Argon gas flow, powder spatter particles, melt pool dynamics, and four powder motion modes including recoil, entrainment, elevation, and expulsion. The image also includes physics simulation diagrams and high-speed X-ray imaging concepts.

Why Powder Spatters in LPBF: Physics Models & X-Ray Insights

By Felix Lee | CEO at Forgecise Published July 25, 2026 Search Summary Why does metal powder spatter in Laser Powder Bed Fusion (LPBF)? Metal powder spatters because high-power lasers vaporize metal, blasting out a fast vapor jet ($>100\text{ m/s}$). This jet pulls in surrounding Argon shielding gas, creating suction and pressure drags that drag,

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An infographic titled "5 Advanced Automotive 3D Printing Benchmarks" within a digital display in a modern manufacturing facility. The left panel shows a 3D printer with a metal chassis part, and the right panel shows a robot arm holding a finished metal exhaust. The center features five vehicle examples: MINI, Apollo EVO, LongBow Speedster, Bentley Batur, and Czinger 21C, with their printed components and technologies. At the bottom, a touch screen details "Materials Innovation" and "Economics of Short-Run Production" with data.

From Concept to Chassis: 5 Recent Case Studies of Additive Manufacturing in High-End Automotive

By Felix Lee, CEO at Forgecise | Published July 2026 Quick Summary: High-performance and luxury carmakers have moved 3D printing out of the prototype lab and onto the assembly line. Because supercars and limited-run vehicles use low production numbers, traditional factory molds cost too much. Today, manufacturers use additive printing for polymer cabin trims, aerospace-grade

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A bright, futuristic 3D printing facility. In the foreground, an FS1521 SLM 3D printer creates a metal rocket nozzle. Engineers stand nearby, reviewing data on screens. Large windows show a SpaceX Starship on a launchpad in the background. Text on the wall refers to a 2026 Blue Paper analysis of commercial space technologies.

The Top 5 Hotspot Technologies Revolutionizing Commercial Space 3D Printing in 2026: An In-Depth Blue Paper Analysis

Executive Summary 1. Introduction: The Strategic Pivot from Validation to Scale The commercial space industry is undergoing an unprecedented paradigm shift. For decades, metal 3D printing was confined to low-volume prototype validation and specialized test articles. In 2026, driven by the commercial urgency of mega-constellation deployments (such as low-Earth orbit satellite networks) and multi-use heavy-lift

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Alt Text: A bright and modern 3D printing research laboratory in China, showing researchers using advanced industrial additive manufacturing equipment and an interactive display map highlighting research hubs across the country.

Directory of 60+ Top 3D Printing / Additive Manufacturing Research Institutes and Labs in China

Author: Felix Lee (CEO at Forgecise) Published: June 28, 2026 Last Updated: July 23, 2026 Source Credit: Nanjixiong 3D Printing Executive Summary China’s additive manufacturing (AM) research network spans four main tiers: National-level platforms, Provincial and Ministerial key labs, University research institutes, and Chinese Academy of Sciences (CAS) centers. Following the publication of List of

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Does Hot Water Softener 3D Print Resin? The Definitive Industrial Guide

Does Hot Water Softener 3D Print Resin? The Definitive Industrial Guide

By: Felix Lee, CEO at Forgecise Published: May 22, 2026 Category: Additive Manufacturing & Industrial Facility Operations About the Author: Felix Lee is the CEO of Forgecise, specializing in B2B additive manufacturing solutions, polymer thermodynamics, and industrial facility optimization. Executive Summary / TL;DR The search query “does hot water softener 3d print resin” frequently causes

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3D Printing in Consumer Electronics Titanium Smartwatch Case Manufacturing

3D Printing in Consumer Electronics: Titanium Smartwatch Case Manufacturing

Release Date: 2026-04-19 Technical Background and Industry Needs Smartwatches, as representative products of wearable devices, require case designs that balance lightweight construction, durability, and aesthetic appeal. Traditional manufacturing processes face significant limitations in material utilization and design freedom, particularly in the production of high-end titanium watch cases. Conventional forging techniques not only result in substantial

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3D Printing in Accelerating R&D in the Consumer Electronics Industry

3D Printing in Accelerating R&D in the Consumer Electronics Industry

Release Date: 2026-04-19 Introduction 3D printing technology, also known as additive manufacturing, has evolved from a simple prototyping tool since its inception in the 1980s to become an integral component of modern manufacturing. In the consumer electronics sector, this technology is playing an increasingly important role, not only accelerating product development processes but also driving

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Innovation in Shoe Mold Manufacturing SLM Metal 3D Printing Enables Efficient Production

Innovation in Shoe Mold Manufacturing: SLM Metal 3D Printing Enables Efficient Production

Release Date: 2026-04-19 The Evolution of Shoe Mold Manufacturing As 3D printing technology continues to mature, the traditional shoe mold manufacturing industry is undergoing a quiet but profound transformation. Through digital technologies, mold manufacturers can now significantly improve both efficiency and quality in their production processes. Among various additive manufacturing techniques, metal 3D printing stands

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The Application of 3D Printing Technology in Mold Manufacturing

The Application of 3D Printing Technology in Mold Manufacturing

Release Date: 2026-04-10 3D printing technology emerged in the mid-1990s. Using a computer-generated 3D design model as its blueprint, it employs software to slice the model into discrete layers and utilizes a CNC forming system to build physical objects layer by layer. Specialized materials—such as ceramic powder, metal powder, plastics, or even biological tissues—are selectively

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