Special Offers
Designed For Raspberry Pi 5, Supports IEEE 802.3af/at Network Standard
Adapter For NVMe Protocol M.2 Solid State Drive, High-speed Reading/Writing
| PoE power input | 37V ~ 57V DC in |
|---|---|
| Power output | GPIO header: 5V 4.5A (MAX) 2P header: 12V 2A (MAX) |
| Dimensions | 56.5 × 70.0mm |
| Network standard | IEEE 802.3af/at PoE |
for reference only, the Raspberry Pi 5 is not included.
Note: Only supports the NVMe Protocol Solid State Drives.
Based on 16PIN PCIe Interface of Raspberry Pi 5.
Standard Raspberry Pi 40PIN GPIO stackable header, allows connecting other HATs
for reference only, please refer to the Package Content for detailed part list
Easy to monitor the Working Status
Compatible With 2230/2242 Size M.2 Solid State Drive
Supports Gen2 and Gen3 Modes, Supports Booting PI5 From Solid State Drive
Providing both network connection and power supply for your Raspberry Pi in one cable
5V header provides up to 4.5A output (MAX 25W for 12V+5V total output power)
be able to power extra devices while providing stable power to Raspberry Pi
Accelerate Cooling Effect, More Stable Performance
Attach the thermal tapes first, then install the metal heatsink and fix the HAT
for reference only, please refer to the Package Content for detailed part list
1 x PoE M.2 HAT+
1 x Metal heatsink
1 x 16P-Cable-40mm
1 x Thermal tape (3PCS)
1 x Screws pack
You might also need our case made specifically to house this kind of board
Please note: Pic is for illustration purposes only. The frame on the rear of the panels might be shaped differently.
These HUB75 style panels are normally used to make video walls, you can sometimes see them on the sides of buses and bus stops displaying animations or short video clips. They have bright RGB LEDs arranged in a 32x32, 32x64 or 64x64 grid on the front. On the back there is a PCB with a set of dual IDC connectors (one input, one output) and 12 16-bit latches that allow you to drive the display with a 1:16 scan rate.
These panels require 13 digital pins (6 bit data, 7 bit control) and a good 5V supply, up to 4A per panel). They are 'chainable' if you connect one output to the next input - you will need a microcontroller with a suitably high speed processor and enough RAM plus a software library that supports this.
These displays are designed to be driven by FPGAs or other high speed processors: they do not have built in PWM control of any kind. Instead, you're supposed to redraw the screen over and over to 'manually' PWM the whole thing. On a 16 MHz Arduino, it's possible to squeeze 12-bit color (4096 colors) with 40% CPU usage but they will do best powered by an FPGA or other high speed multi-core controller (like a recent Raspberry Pi or Feather). They are pre-white balanced with nice uniformity so if you turn on all the LEDs it's not a particularly tinted white.
Here are some nice, tidy ways to connect up and drive your LED matrices:
- Interstate 75 (RP2040 based all-in-one controller)
- RGB Matrix Shield (for Arduino and compatibles)
- RGB Matrix Bonnet or RGB Matrix HAT (for Raspberry Pi)
- RGB Matrix Featherwing (for M0, M4 and RP2040 Feathers or nRF52840 Feathers)
Specifications
| COM-B013 | |
| Dimensions (mm, L x W x H) | 192 x 192 x 14.5 |
| Panel resolution | 64 x 64 (4096 dots |
| Physical LED pitch (mm) | 3mm |
| Panel weight (kg) | 0.194Kg |
| Viewing angle (horizontal) | ≥160° |
| Viewing angle (vertical) | ≥160° |
| Maximum power (w) | ≤40 |
| Luminance (cd/m) | ≥1000 |
- 5V regulated power input, 4A max (all LEDs on)
- 5V data logic level input
- Displays are 'chainable' - connect one output to the next input.
What's in the box?
1 x 64x64 LED panel
1 x Power cable (with fork connectors suitable for connecting to a screw terminal)
1 x IDC data cable
Magnetic feet are NOT included