Poor-man-NeoPixel-board | shirt crazy glow like a disco floor
kandi X-RAY | Poor-man-NeoPixel-board Summary
kandi X-RAY | Poor-man-NeoPixel-board Summary
Poor-man-NeoPixel-board is a C++ library. Poor-man-NeoPixel-board has no bugs, it has no vulnerabilities, it has a Permissive License and it has low support. You can download it from GitHub.
Make the shirt crazy glow like a disco floor with NeoPixel's strip and ESP8266!
Make the shirt crazy glow like a disco floor with NeoPixel's strip and ESP8266!
Support
Quality
Security
License
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Support
Poor-man-NeoPixel-board has a low active ecosystem.
It has 2 star(s) with 0 fork(s). There are 1 watchers for this library.
It had no major release in the last 6 months.
Poor-man-NeoPixel-board has no issues reported. There are no pull requests.
It has a neutral sentiment in the developer community.
The latest version of Poor-man-NeoPixel-board is current.
Quality
Poor-man-NeoPixel-board has no bugs reported.
Security
Poor-man-NeoPixel-board has no vulnerabilities reported, and its dependent libraries have no vulnerabilities reported.
License
Poor-man-NeoPixel-board is licensed under the MIT License. This license is Permissive.
Permissive licenses have the least restrictions, and you can use them in most projects.
Reuse
Poor-man-NeoPixel-board releases are not available. You will need to build from source code and install.
Installation instructions are available. Examples and code snippets are not available.
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Currently covering the most popular Java, JavaScript and Python libraries. See a Sample of Poor-man-NeoPixel-board
Currently covering the most popular Java, JavaScript and Python libraries. See a Sample of Poor-man-NeoPixel-board
Poor-man-NeoPixel-board Key Features
No Key Features are available at this moment for Poor-man-NeoPixel-board.
Poor-man-NeoPixel-board Examples and Code Snippets
No Code Snippets are available at this moment for Poor-man-NeoPixel-board.
Community Discussions
No Community Discussions are available at this moment for Poor-man-NeoPixel-board.Refer to stack overflow page for discussions.
Community Discussions, Code Snippets contain sources that include Stack Exchange Network
Vulnerabilities
No vulnerabilities reported
Install Poor-man-NeoPixel-board
If you want to use Jinx to control LEDs display:.
Download and install the software (it don't need administrative priviledge 😉)
Go to Setup > Matrix options. Then, in matrix diemnsion, edit the matrix size to match with yours.
Go to Setup > Output devices. Click Add. Then, fill the form as following: Device type: tpm2.net IP Address: Check your router. Or, if you attach FTDI, see the line IP Address: in the Serial console. Data > Channels & Chan/Block: At lease (3 * width * height) + 7. Each pixel need 3 bytes (Red, Green, Blue), 7 bytes is for TPM2.net prefix and end byte. Jinx will send data as a user data and raw bytes of pixels. Excess bytes'll be ignored by default. And, since I'm too lazy to handle multiple data blocks, I'll just assume that the whole frame is in one block.
Go to Setup > Output patches. It'll display red pixel grid, which is unpatched pixels. Click Fast patch. Fill the following values: Dimension: x: matrix width, y: matrix height. (That means we want to transmit the whole frame) Make sure the Starting pixel at is 1/1. If not, go back to patch grid, and click the top-left corner pixel. Patch mode: depend on how you wire your strip's data line chain. In my case, I connect the first DIN (Data in) to the Top-right corner (I know it's weird, but I'm confuse while connectingit together, and I'm mess up the order. So, to save my time, I connect it that way. 😑) and, to reduce data line length and minimize capacitance interference, I connect each pixel as a zig-zag pattern. (First column is on the right, even lines are top-to-bottom, odd lines are bottom-to-top.) So, I choose Snakecolumns starting Top-Right. Pixel order: RGB First channel: 0 Patch device: Your device.
On Channel 1 / Effect 1, select simple color. It'll show red color in every pixels.
Go to Setup > Start Output. If your setup is right, the matrix should illuminate red in every pixels.
On Channel 1 / Effect 1, Click edit. Swap to each others main colors. If the color's display incorrectly, change Pixel order in Output patches.
To prevent overcurrect, on the bottom center of the program, slide Master down to the acceptable degree.
If everything's looks good, OPEN THE DISCO FLOOR BABY!
Download and install the software (it don't need administrative priviledge 😉)
Go to Setup > Matrix options. Then, in matrix diemnsion, edit the matrix size to match with yours.
Go to Setup > Output devices. Click Add. Then, fill the form as following: Device type: tpm2.net IP Address: Check your router. Or, if you attach FTDI, see the line IP Address: in the Serial console. Data > Channels & Chan/Block: At lease (3 * width * height) + 7. Each pixel need 3 bytes (Red, Green, Blue), 7 bytes is for TPM2.net prefix and end byte. Jinx will send data as a user data and raw bytes of pixels. Excess bytes'll be ignored by default. And, since I'm too lazy to handle multiple data blocks, I'll just assume that the whole frame is in one block.
Go to Setup > Output patches. It'll display red pixel grid, which is unpatched pixels. Click Fast patch. Fill the following values: Dimension: x: matrix width, y: matrix height. (That means we want to transmit the whole frame) Make sure the Starting pixel at is 1/1. If not, go back to patch grid, and click the top-left corner pixel. Patch mode: depend on how you wire your strip's data line chain. In my case, I connect the first DIN (Data in) to the Top-right corner (I know it's weird, but I'm confuse while connectingit together, and I'm mess up the order. So, to save my time, I connect it that way. 😑) and, to reduce data line length and minimize capacitance interference, I connect each pixel as a zig-zag pattern. (First column is on the right, even lines are top-to-bottom, odd lines are bottom-to-top.) So, I choose Snakecolumns starting Top-Right. Pixel order: RGB First channel: 0 Patch device: Your device.
On Channel 1 / Effect 1, select simple color. It'll show red color in every pixels.
Go to Setup > Start Output. If your setup is right, the matrix should illuminate red in every pixels.
On Channel 1 / Effect 1, Click edit. Swap to each others main colors. If the color's display incorrectly, change Pixel order in Output patches.
To prevent overcurrect, on the bottom center of the program, slide Master down to the acceptable degree.
If everything's looks good, OPEN THE DISCO FLOOR BABY!
Support
For any new features, suggestions and bugs create an issue on GitHub.
If you have any questions check and ask questions on community page Stack Overflow .
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