From healthcare gadgets to tiny electronics, laser tech has reshaped countless fields. Among the many kinds of lasers we have today, violet lasers—which give off light around 405 nanometers—are special because of their unique color and precision. That eye-catching purple-blue glow isn’t just for loo

Lasers are commonly used in most trades, particularly construction, installations, and surveying. They are used to project vertical, horizontal (and sometimes both) lines in either green or red to acquire fast and accurate measurements over a long distance.
But, what is the difference between the colours red and green? Is there any practical advantage to using one over the other? The fact is, there is absolutely no difference when it comes to accuracy. Both are (pun intended) laser-accurate. Ultimately, the key differentiators between the two are price, brightness, visibility, and battery life.

Have you ever wondered how to ensure the reliability of your laser module? A malfunctioning module can lead to costly issues and downtime.In this article, we will explore the importance of testing laser modules and why it's crucial for long-lasting, efficient operation.

Laser modules are powerful tools with countless applications, from DIY projects to industrial use. These compact devices emit focused beams of light, essential for tasks like engraving and automation.In this guide, we'll walk you through how to effectively use a laser module.

Laser modules are vital in industries like 3D printing and alignment. But how long do they last?In this article, we will explore the lifespan of laser modules, what affects it, and how you can extend it. You’ll learn key factors that influence their longevity and ways to maximize their efficiency.

Laser modules power a wide range of DIY projects, from 3D printing to security systems. But proper wiring is crucial to ensure they work safely and effectively. In this guide, we will walk you through the steps to wire a laser module, covering everything you need to know,

Laser modules are revolutionizing industries worldwide. From healthcare to telecommunications, their applications are vast and growing. These compact devices combine advanced components to deliver precise, focused light.In this article, we’ll explore what laser modules are, how they work,

Both semiconductor lasers and CO2 lasers create concentrated beams of light, usually used for cutting away material, but they work in drastically different ways. They generate power through two different mechanisms, and each type of laser can come in diverse subtypes and configurations. Still, both processes start with reliable electrical power delivered from a sophisticated power supply.

​Covering the ultraviolet (UV), visible, and near-infrared (NIR) spectral ranges, 375-980nm semiconductor fiber coupled lasers offer broad wavelength coverage, precise energy control, and flexible transmission via optical fibers. These features allow them to accurately match the "target tissue absorption characteristics" (e.g., pigment, hemoglobin, water, photosensitizers) in various medical scenarios. Their medical applications primarily focus on dermatology, dentistry, ophthalmology, tumor photodynamic therapy (PDT), and minimally invasive surgical procedures.

A fiber-coupled laser is a diode laser where the generated light is guided and delivered by an optical fiber instead of being emitted as a free-space beam. A fiber coupled laser is a type of laser system where the laser beam, generated by a laser source (e.g., diode lasers, solid-state lasers), is efficiently coupled into an optical fiber for transmission, delivery, or further processing. Unlike "free-space lasers" (where the beam travels through air), fiber coupled lasers leverage optical fibers to guide the laser beam, enabling flexible, stable, and precise beam delivery in industrial, medical, scientific, and consumer applications.