Addressable Flex LED Pixel Panel
33 productsAddressable flexible LED pixel panels provide a turnkey 2D grid solution that eliminates the labor-intensive assembly, wiring complexity, and alignment errors associated with constructing custom matrices from individual LED strips. By integrating pre-spaced, individually addressable LED neopixels onto a uniform, bendable substrate, these panels drastically streamline installation for curved surfaces, cylindrical pillars, and complex architectural contours while guaranteeing pixel-perfect pitch and seamless graphic, text, and video rendering right out of the box.
Our LED matrix panel range is built to cover any project size or power requirement. We stock common configurations like 8x8, 16x16, and 8x32, with pixel densities high enough for clear visuals even at close range. You'll find panels based on 5V, 12V, and 24V systems.
Product spec sheets & downloads
WS2805 Digital 5-in-1 RGBCW LED Matrix Light Sheet 1.24FT²
APP Controlled Flexible LED Clothing Display Screen Panels
UL 12V WS2815 Programmable RGB Pixels LED Light Sheet 96.8in²
DC5V 0.26x0.26Ft WS2812B Full Color Digital Addressable Flexible LED Display Screen - Built in 64 Pixel Dot Matrix Display
WS2812B 5050 RGBW 8x8 Adafruit Neopixel Neomatrix
8x8 WS2815 RGB LED Matrix Display Panel Flex
5V 51W 8x32 SK6812 RGBW Display Screen Programmable LED Matrix Panel
5V 16x16 SK6812 RGBW LED Neopixel Matrix Display Screen Panel 51W
WS2812B 16x16 Programmable Neopixel Flexible Matrix LED Panel
WS2812B 0.52x0.52Ft Flexible LED Pixel Matrix Display Screen
DC5V 1x0.26Ft WS2812B Full Color Digital Addressable Flexible LED Display Screen - Built in 256 Pixel Dot Matrix Display
8 x 32 5050 WS2812B RGB Flexible Addressable LED Pixel Screen
UL 24V Black SM16703 RGB Addressable Flex LED Sheet 1.29FT²
WS2811 Individually Controllable & Cuttable RGBIC LED Sheet 1.35FT²
High-Density SM16703 IC RGB Pixel LED Sheet 1.24FT²
DC5V 0.98x0.79Ft WS2812B Full Color Digital Addressable Flexible LED Display Screen - Built in 720 Pixel Dot Matrix Display
Which LED Matrix Panel IC is Right for Your Project?
The IC (Integrated Circuit) chip is the brain of each pixel, and it determines how the panel performs. The three most common types you'll see are the WS2812B, the WS2815, and the SK6812. While they look similar, they have key differences in voltage, data redundancy, and color capabilities that directly impact your project's design and reliability. Understanding these is the first step to choosing the right RGB LED display panel.
| Feature | WS2812B / SK6812 (RGB) | WS2815 | SK6812 (RGBW) |
| Voltage | DC 5V | DC 12V | DC 5V |
| Data Lines | Single Data Line | Dual Signal (Data + Backup) | Single Data Line |
| Key Advantage | Lowest cost, widely available. Ideal for smaller projects. | Less voltage drop for longer runs. One dead pixel won't break the chain. | Adds a dedicated white channel for true whites and pastels. |
| Best For | Hobbyists, small wearables, projects where cost is primary. | Large installations, signage, projects needing high reliability. | Artistic lighting, photography, anywhere color quality is critical. |
How to Power and Wire a Large LED Matrix Panel
Powering an LED panel correctly is the single most important part of any installation. A common mistake is underestimating the amperage. Trying to power from one end will cause significant voltage drop, resulting in flickering, incorrect colors, and dead pixels.
To prevent this, you must run heavy-gauge power wires directly from your power supply to both the start and end of the panel, and often to the middle as well. For very large matrix display screens made of multiple panels, each panel should have its own dedicated power lines running back to the supply.
Data signal wiring is simpler but just as critical. The panels are chained together by connecting the 'DOUT' (Data Out) port of one panel to the 'DIN' (Data In) port of the next. This creates one long, serpentine strip of pixels for your controller to address.
For displays larger than a few hundred pixels, the data signal can degrade. If you notice flickering at the far end of your chain, you may need a signal amplifier or a controller with multiple outputs to drive sections of your screen in parallel. You can learn more in our detailed guide on how to wire addressable LEDs.
How Flexible is an LED Display Screen, Really?
Our flexible LED display screens are built on a bendable printed circuit board (FPCB). This allows them to conform to curved surfaces, like wrapping around a pillar or building them into custom-shaped signs. They offer a freedom you can't get from a rigid PCB strip.
However, 'flexible' has its limits. You can bend them smoothly with a generous radius, but you can't fold them sharply like paper or repeatedly flex them back and forth. A hard crease will damage the copper traces and kill pixels permanently. Think of it as shaping it once for a permanent installation. We also stock some cuttable LED sheet products that allow you to trim them to a specific size, offering even more customization.
Choosing a Controller for Your RGB LED Screen Panel
The beauty of an addressable LED light panel is its compatibility with a huge range of controllers. For hobbyists and DIY projects, microcontrollers like Arduino or Raspberry Pi running libraries like FastLED or Neopixel are extremely popular and offer maximum control.
For simpler plug-and-play effects without coding, we have standalone controllers like the K-1000C or SP-series that come with pre-programmed animations. For large, professional installations that need to sync with other lighting, you'll want to use a controller that can receive Art-Net or sACN from a media server, or interface with a DMX console. Many of our panels are also compatible with WLED, a popular open-source firmware that gives you powerful effects controlled from your phone.
Frequently Asked Questions About Addressable Flex LED Pixel Panels
Got a question about setting up your LED matrix? You're in the right place. Here are the answers we give most often on the tech support desk.
It depends on the size of your display and how you plan to wire it. 5V panels, like those using WS2812B or SK6812 chips, are very common but require thick wire and frequent power injection on larger setups due to high amperage. 12V and 24V panels, often using chips like the WS2815 or SM16703, are much more forgiving on wiring. You can run longer connections from your power supply and chain more panels together before voltage drop becomes an issue. For any large-scale project, 24V is almost always the easier path.
To make an LED panel display, you need four key parts: the addressable LED panel itself, a power supply large enough to run it, a controller to send the signal, and some kind of frame. You'll wire the panel's power inputs to the power supply and its data input (DIN) to your controller's data output. From there, you program the controller with your desired text or animation. It's a popular project, and we have all the addressable controllers you need to bring it to life.
Yes, that's exactly what they're designed for. You connect the 'DOUT' (Data Out) port of the first panel to the 'DIN' (Data In) port of the second, and so on. This creates one long chain of pixels that your controller sees as a single, larger display. Just remember that power doesn't chain through the panels; each panel, or every couple of panels, needs its own direct connection back to the power supply to avoid dimming and color issues.
You need a controller that speaks the language of the panel's specific IC chip (like WS2811, SK6812, etc.). For simple effects, a basic pre-programmed controller works. For custom animations, you'll want something programmable like an Arduino, a Raspberry Pi, or a more advanced controller like the SP802E that supports matrix layouts. Make sure the controller's voltage matches your panel's voltage.
This is almost always a power supply issue. Your power supply can't deliver the high current the panel is demanding at full white brightness, causing its voltage to sag, reset, and flicker. You either need a bigger power supply (more amps/watts) or the wires you're using to connect it are too thin for the current load. Try a lower brightness; if the flickering stops, you've confirmed it's a power problem.
A cuttable addressable led sheet has clearly marked cut lines, usually between every pixel or every row of pixels. This lets you trim the panel to a precise size. An uncut LED panel is designed to be used as-is, in its stock dimension (like 16x16 or 8x32). Cutting an uncut panel will likely damage the circuitry and cause sections to fail. If you need a custom shape, always start with a model that is explicitly marked as cuttable.
If it's just one pixel, the chip inside that LED has likely failed. If it's one pixel and every pixel *after* it is dead or acting erratically, that one failed pixel has broken the data chain. This is a common failure on single-signal strips. Some of our newer panels use dual-signal chips like the WS2815, which have a backup data line to prevent one dead pixel from taking down the rest of the display.
They are flexible, but not foldable. You can bend them gently around a curve, like wrapping them around a large column or fitting them to a contoured surface. But you can't make a sharp 90-degree crease or fold it back on itself. Doing that will break the copper traces on the circuit board. Think 'gentle curve,' not 'sharp fold.' For repeated flexing, they are not suitable.
Absolutely. Most of our addressable LED panels use common SPI-based chips like the WS2812B, WS2811, and SK6812, which are fully supported by WLED, FastLED, and other popular libraries for Arduino and ESP32/ESP8266 boards. Just configure the software with the correct chip type and the total number of pixels in your matrix, and you're good to go.
Yes, we build custom panels all the time—it's a huge part of our business and much of what we ship is built-to-spec. We can modify the dimensions, change the pixel density, use a specific IC chip, or pre-attach specific connectors and wire lengths. Just send our engineering team a drawing—even a sketch on a napkin works. We'll send back a full wiring diagram, parts list, and quote, usually the same day. There's no fee for the consultation and no obligation to order.
Individually addressable means that every single LED on the panel has its own tiny integrated circuit (IC). This allows you to set the unique color and brightness of each light, independent of all the others. Some lower-cost panels group LEDs into small clusters, where maybe 3 or 6 LEDs share an IC and are controlled as one block. For the highest resolution effects, you want an individually controllable LED panel.