Industrial Technology

By Felix Lee, CEO at Forgecise | Published: May 19, 2026 The financial success of stereolithography (SLA) and digital light processing (DLP) printing farms relies heavily on first-layer adhesion. In industrial settings, print failures mean more than just losing a few dollars of cheap polymer. They waste operator labor, cause machine downtime, consume expensive solvents, […]

Commercial metal prints require far more than standard picture hooks. In high-traffic corporate, hospitality, and gallery spaces, successful installations depend on engineered mounting systems, wall substrate compatibility, adhesive shear calculations, security integration, and glare management. The right hanging methodology protects both the artwork and the building itself while maintaining a clean architectural presentation. TL;DR A

Author: Felix Lee, CEO at Forgecise Date: May 15, 2026 Category: Industrial Additive Manufacturing / Material Science The Industrialization of Additive Manufacturing Additive manufacturing (AM) is transitioning from a prototyping tool to a method for scalable industrial production. Clear resin—used in high-resolution vat photopolymerization processes—has become a necessary material for B2B sectors, including medical diagnostics,

By Felix Lee, CEO at Forgecise Published: May 15, 2026 Executive Summary (TL;DR): The definition of the “cheapest resin 3D printer” changed fundamentally in 2026. The price floor for a high-resolution, professional-grade 10K system dropped to $169. For B2B buyers, budget machines equipped with tilt-vat mechanics and smart failure checks now offer a highly profitable

Author: Felix, CEO at Forgecise Date: May 14, 2026 In 2026, scaling up 3D printing often hits a wall at the post-processing stage. Many professional teams ask a simple question: Does hot water soften 3D print resin? The short answer is yes. If you are working with “green” (uncured) parts, heat breaks down the stiffness

By Felix, CEO at Forgecise Published: May 14, 2026 Vat photopolymerization (VPP) has moved from a simple prototyping tool to a core industrial manufacturing method. This shift means we need to look closely at every step in the 3D printing process. People often focus on exposure settings and hardware precision. But the post-processing phase is

Author: Felix, CEO at Forgecise Date: May 13, 2026 Category: Industrial Safety / Additive Manufacturing Disclaimer: This article provides general information. For medical advice or occupational regulatory compliance, consult a certified professional. Additive manufacturing, specifically vat photopolymerization (SLA, DLP, MSLA), has moved straight from prototyping labs to the industrial production floor. This shift relies heavily

By Felix | CEO, Forgecise Published: May 12, 2026 Author’s Note: At Forgecise, we handle the export and deployment of industrial-grade metal, plastic, and ceramic 3D printers. Daily, I see companies struggle to move past basic prototyping. By 2026, resin-based 3D printing has matured into a strict operational stack requiring secure data and credible post-processing.

In the aerospace, medical device, and automotive industries, metal 3D printing (additive manufacturing) is gradually transitioning from prototyping to the production of safety-critical components. However, to truly replace traditional forging or casting processes, a core threshold must be crossed: fatigue performance. Unlike traditional manufacturing, the layer-by-layer stacking nature of 3D printed parts makes their microstructure, defect

In the world of metal 3D printing, although both methods can eventually produce hard parts, the underlying principles are vastly different. Currently, the two most discussed technologies on the market are Laser Powder Bed Fusion (SLM), which is based on “melting,” and Binder Jetting or Metal FDM, which are based on “sintering/bonding.” To help everyone better understand the differences