FANNAL DISPLAY

 Industrial displays are expected to operate for years under continuous use. In automation systems, medical equipment, vehicle-mounted terminals, and outdoor control panels, brightness stability over time is often more critical than initial image quality. For LCD technology, long-term performance is defined by how well the display maintains luminance. Gradual dimming, uneven brightness, or color shift are typical aging behaviors observed in the field. These changes are primarily related to the LED backlight system, which provides the illumination for the entire panel. Because LCD panels rely on a backlight to generate visible output, the longevity of that light source becomes the practical lifespan limit of the display module. Why LCD Backlight Determines Display Lifespan An LCD panel is a non-emissive technology. Unlike OLED, it requires a backlight unit (BLU) to provide illumination. Most industrial LCD displays use white LED backlights. Over time, LED brightness gradually decr...

 In display specifications, resolution names often look simple — HD, FHD, 2K, 4K — but in real industrial projects, these labels hide many technical and practical differences. Unlike consumer electronics, industrial display selection is not driven by marketing terms. It is driven by: Readability and operator comfort Controller and interface capability System stability and long-term supply Cost and qualification risk This article explains the most common resolutions from VGA to 8K , and more importantly, how engineers and system integrators should interpret them in industrial environments. 1. Resolution Is Only a Coordinate System At its core, resolution simply describes the number of horizontal and vertical pixels on a panel. For example: 640 × 480 means 640 columns and 480 rows of pixels 1920 × 1080 means 1920 columns and 1080 rows of pixels What resolution does not describe: Physical screen size Pixel density (PPI) Viewing distance Brightness, contrast, or optical performance Th...

  A TFT display is often the first component blamed when the screen turns white, flickers, or shows abnormal colors. In reality, many display failures originate from signal integrity, power sequencing, optical assembly, or environmental stress rather than the panel itself. This article summarizes practical diagnostic logic used by field engineers and system integrators. The goal is not to list parameters, but to explain how to quickly locate the fault domain and avoid unnecessary panel replacement. 1. Start with Symptom Classification Before measuring anything, classify the visible symptom. This step alone eliminates many wrong directions. Typical categories: No image (white screen / black screen) Distorted image (lines, noise, unstable patterns) Brightness or color abnormality Temperature‑related failure Symptom classification defines whether the root cause is likely electrical, optical, or environmental. 2. Electrical & Signal Path Issues Common field symptoms Backlight on, i...

 In many display projects, brightness issues are diagnosed too quickly. When a screen becomes unreadable under sunlight, the immediate conclusion is usually simple: The panel is not bright enough. In practice, this conclusion is often wrong. Most brightness failures in industrial and outdoor displays are not caused by insufficient panel luminance, but by losses and limitations introduced after the panel leaves the supplier. Brightness is rarely a single-parameter problem. The Difference Between Panel Brightness and System Brightness LCD brightness is specified at the panel level, measured under controlled laboratory conditions. Once the panel is integrated into a real product, the light path becomes much more complex. Between the LED backlight and the user’s eyes, light passes through: Diffuser and prism films Polarizers Bonding layers Cover glass Surface coatings Each interface introduces absorption, reflection, or scattering. A panel rated at 1000 nit...

Six Core Capabilities You Should Know In today's era of intelligent mobility, the display panel on electric scooters and motorcycles is no longer just a simple speedometer. It has evolved into a smart control center — integrating information display, rider interaction, and real-time safety alerts. But what does it really take to make a high-performance motorbike display or motorcycle display that stands up to real-world use? Here are the six key capabilities that define a next-generation two-wheeler display system: 1. Readability Under Any Condition: High Brightness for Outdoor Use Motorcycles and electric scooters are mostly used outdoors. Displays must remain clearly visible in direct sunlight or rainy weather. A quality automotive display should offer: Brightness above  1000 nits Optical bonding to reduce glare and reflections Enhanced readability in high ambient light environments 2. Built for Rough Roads: Vibration, Water, and Impact Resistance Compared to cars,  motorbik...

 In demanding industrial environments, durability isn't optional—it’s essential. For equipment operating in hazardous zones, achieving ATEX certification requires the entire system, including the display module, to meet strict mechanical standards. Among them, IK10 impact resistance is considered the highest benchmark for touchscreen protection. At  FANNAL , we specialize in rugged touchscreen display solutions. Our  IK10 touchscreen modules  are designed to withstand extreme physical impact, helping our customers build ATEX-certified equipment that is both safe and reliable. IK Rating Reference Chart: Click to watch how FANNAL performs drop impact testing: Industrial-Grade IK10 Touchscreen — Proven 20-Joule Impact Resistance Our custom touchscreens are built with  6mm thick tempered glass , designed and tested to pass  IK10 standards , which equates to withstanding 20 joules of impact—equivalent to a 5kg object dropped from 40cm. This makes them ...