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Burn marks are one of the most common challenges in wood laser cutting. Dark edges and scorch marks not only affect appearance but can also increase post-processing time. In this guide, we’ll explain why burn marks happen, how to prevent them effectively, and how choosing the right laser cutting mac

Ultrafast laser micro/nano welding enables high-precision interconnection of micro- and nanoscale structures by exploiting femtosecond or picosecond laser pulses with extreme thermal localization. Through localized plasma resonance and nonlinear absorption, this technology achieves precise melting and bonding while avoiding heat-affected damage to surrounding materials. It has demonstrated superior performance in metal, semiconductor, and heterogeneous material welding, offering a powerful and versatile solution for next-generation microelectronics, optoelectronics, and MEMS manufacturing.

Laser cutting is widely used for paper products such as greeting cards, invitations, packaging, and decorative crafts. However, burn marks, yellow edges, and charring are common concerns when cutting paper with a laser.This guide explains why burn marks happen and how to achieve clean, crisp edges w

This article reviews the mechanisms, types, and causes of cracks in nickel-based superalloys fabricated by Selective Laser Melting. Due to low thermal conductivity, wide solidification range, and severe shrinkage, SLMed superalloys are prone to solidification cracking, liquation cracking, DDC, and SAC. These defects arise from interdendritic segregation, liquid-film rupture, grain-boundary sliding, γ′ coarsening, and rafting. Although powder design, optimized scanning strategies, and heat treatment can reduce cracking, challenges remain. Future research must focus on process optimization, new alloy formulations, and improved post-processing to enhance the reliability of SLM-produced nickel-based superalloy components.

As manufacturing demands quickly evolve in 2025, many businesses are discovering that investing in laser cutting and engraving equipment isn’t just a trend — it’s a strategic move for growth. Below is a real-world case study + market insight analysis that illustrate why more companies are adopting l

As the holiday season arrives, demand for personalized gifts, high-quality decorations, and fast-turnaround production has reached its yearly peak. This Christmas, more factories, workshops, and creative studios are turning to laser engraving and cutting machines to keep up with seasonal orders and

This article reviews key online monitoring technologies used in additive manufacturing, including infrared sensing, visible/UV monitoring, high-speed imaging, and synchrotron X-ray diagnostics, all of which capture melt pool behavior, spatter dynamics, and internal defect evolution. By integrating multi-sensor fusion and advanced algorithms such as machine learning, AM processes can achieve higher-quality evaluation and closed-loop control. These emerging monitoring strategies significantly enhance process stability and lay the foundation for precise, intelligent, and reliable additive manufacturing.

How Thick of Wood Can a Laser Cutter Cut?Laser cutting is a popular and precise method for cutting wood, offering clean edges and intricate designs. However, the cutting thickness depends on factors such as laser power, wood type, and machine settings. In this article, we’ll explore how thick a lase

CO₂ laser engraving and cutting machines have become indispensable tools across multiple industries. With high precision, clean edges, and the ability to process a wide range of materials, more and more manufacturers are integrating laser systems into their daily production.In this article, we share

CO₂ laser machines are essential tools for precision cutting and engraving in industries such as signage, woodworking, acrylic fabrication, textiles, and more. Proper maintenance is key to ensuring long-term performance, consistent results, and a longer lifespan for your machine. Here’s a comprehens

Recently, our engineering team was dispatched to a major packaging factory in Russia to complete the installation and commissioning of a 3D Galvo Head Model Laser Scoring Machine. This high-precision laser system is designed to integrate directly onto the customer’s existing packaging production lin

As more creators, small businesses, and home workshops turn to laser technology, desktop laser engravers and cutters have become one of the most popular tools for personalized products, crafts, prototyping, and small-scale manufacturing.But with so many options—diode lasers, CO₂ lasers, fiber lasers

This work presents a dynamic auto-focusing 3D pulsed laser micromachining technique (d-3DPLM) that enables mask-free, high-resolution fabrication on highly curved non-planar substrates using nanosecond NIR lasers. The method provides consistent micro-/nanopatterning on complex geometries and is demonstrated through electrotactile wearable patches and customizable 3D microelectrode arrays for brain organoids. The technique significantly enhances mechanical conformity and electrical performance of bioelectronic interfaces, offering a promising route for precision, scalable, and personalized 3D bioelectronic device manufacturing.

As laser processing becomes more accessible to makers, small workshops, and industrial users, many beginners are searching for a clear, reliable guide on how different laser machines work — and which one to choose.This Argus Laser Beginner’s Guide explains the fundamentals of CO₂ lasers, fiber laser

With the growing popularity of DIY engraving and small-scale manufacturing, many people are asking: Can I safely use a CO₂ laser machine at home? The answer is — yes, with the right equipment, proper ventilation, and safety awareness, you absolutely can. Here's what you need to consider.