Semiconductor manufacturing requires incredible precision. In an industry where one micron is considered large, even minor process deviations can compromise yield or performance. Laser wafer marking is often the best solution, offering non-contact processing with high repeatability and integration into automated workflows.
In recent years, data centers have experienced unprecedented growth, mainly driven by the rapid expansion of artificial intelligence (AI). This surge comes with massive energy demands, with more centers being built, and computing workloads becoming far more energy intensive.
Automated laser welding is a cutting-edge manufacturing process that merges the precision of laser technology with the consistency and speed of automation. At its core, it’s the use of a laser beam (typically guided by a scanning optic, robotic, or gantry systems) to fuse materials in a controlled, noncontact manner.
Walk into any Hospital and you'll see it immediately. Every single tool, implant, and device has some kind of marking on it. Serial numbers, logos, barcodes. When you're putting something inside someone's body, or even just touching their skin, you need to know exactly what it is, where it came from, and when it was made.
Laser marking is everywhere—from serial numbers on automotive parts to logos on electronics and traceability codes on medical devices. But not all lasers are created equal, and selecting the right type depends on your material and marking requirements.
With their unmatched ability to process materials with high precision and minimal thermal damage, Ultraviolet (UV) lasers have become essential tools across industries as diverse as microelectronics, medical devices, automobiles, and even consumer goods packaging.
The e-coating process, also known as electrocoating, is a highly reliable method for protecting metal parts against corrosion, UV exposure and wear. By understanding how e-coating works and how to optimize it, you can ensure optimal throughput, reduce defects, and achieve high-quality coatings.
In industrial manufacturing, where speed and durability matter most, laser engraving has proven itself as one of the most efficient and reliable solutions for high-quality part marking. In this article, we’ll walk through the key considerations for laser engraving aluminum, from understanding how it works to choosing the best machine for your specific needs.
Solar energy is booming, and solar panel manufacturing is at the heart of this revolution. In this article, we’ll explore how solar panels are made and the biggest challenges faced within the solar energy supply chain. We’ll also cover recent improvements and opportunities to overcome these challenges, including laser technology.
When bonding, coating, painting, printing or sealing, most manufacturers eventually experience adhesion failure, corrosion protection issues, or structural weaknesses. In this article, we will explain what surface treatment is and describe its benefits for various applications. We will also guide you in choosing among today’s 10 most common surface treatment methods.
Removing surface contaminants is an essential step that directly impacts the performance and durability of materials and components. Understanding surface contamination helps compare standard decontamination methods and how laser technology differentiates from traditional approaches.
Solar cell manufacturing has evolved significantly in recent years. As solar energy is predicted to experience extraordinary growth, the near future will likely be marked by even more technological innovations. In this article, we’ll cover the steps of the solar cell manufacturing process. We’ll also highlight challenges and advancements to make solar photovoltaic cells more efficient and sustainable.
