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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Add copy buttons to all
 blocks\n(function() {\n function addCopyButtons() {\n document.querySelectorAll('pre code').forEach(function(codeBlock) {\n if (codeBlock.parentElement.hasAttribute('data-copy-added')) return;\n codeBlock.parentElement.setAttribute('data-copy-added', 'true');\n \n var btn = document.createElement('button');\n btn.textContent = 'Copy';\n btn.style.cssText = 'position:absolute;top:4px;right:4px;padding:2px 8px;font-size:11px;background:#4ecdc4;border:none;border-radius:4px;color:#1a1a2e;cursor:pointer;opacity:0.7;transition:opacity 0.2s;';\n btn.onmouseover = function() { this.style.opacity = '1'; };\n btn.onmouseout = function() { this.style.opacity = '0.7'; };\n btn.onclick = function() {\n navigator.clipboard.writeText(codeBlock.textContent).then(function() {\n btn.textContent = 'Copied!';\n setTimeout(function() { btn.textContent = 'Copy'; }, 1500);\n });\n };\n codeBlock.parentElement.style.position = 'relative';\n codeBlock.parentElement.appendChild(btn);\n });\n }\n \n addCopyButtons();\n \n // Re-run on dynamic content\n var observer = new MutationObserver(addCopyButtons);\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Add Copy Buttons to Code Blocks");
}
} catch(__e) { console.warn('[Userscript:Add Copy Buttons to Code Blocks]', __e); }
})();
(function(){
try {
var __m = "github.com";
var __re = new RegExp('^' + "github\\.com" + '
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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Force GitHub README to respect dark mode\n(function() {\n var style = document.createElement('style');\n style.textContent = '\n .markdown-body {\n color-scheme: dark light;\n }\n .markdown-body pre { background: #161b22 !important; }\n .markdown-body code { background: rgba(110, 118, 129, 0.4) !important; }\n .markdown-body table th, .markdown-body table td { border-color: #30363d !important; }\n .markdown-body img { background: #0d1117; }\n .markdown-body blockquote { border-left-color: #8b949e; }\n .markdown-body hr { border-color: #30363d; }\n ';\n document.head.appendChild(style);\n})();", "GitHub Dark Mode README Fix"); } } catch(__e) { console.warn('[Userscript:GitHub Dark Mode README Fix]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Highlight search terms from Google/DuckDuckGo/Bing referrer\n(function() {\n var ref = document.referrer;\n var terms = [];\n \n if (ref.includes('google.com') || ref.includes('duckduckgo.com') || ref.includes('bing.com')) {\n var url = new URL(ref);\n var q = url.searchParams.get('q') || url.searchParams.get('p');\n if (q) {\n terms = q.split(/\\s+/).filter(function(t) { return t.length > 2; });\n }\n }\n \n if (terms.length === 0) return;\n \n var style = document.createElement('style');\n style.textContent = '.userscript-highlight { background: #fbbf24; color: #1a1a2e; padding: 1px 3px; border-radius: 2px; }';\n document.head.appendChild(style);\n \n function highlight(node) {\n if (node.nodeType === 3) { // text node\n var text = node.textContent;\n var found = false;\n terms.forEach(function(term) {\n var regex = new RegExp('(' + term.replace(/[.*+?^${}()|[\\]\\\\]/g, '\\\\') + ')', 'gi');\n if (regex.test(text)) {\n found = true;\n var frag = document.createDocumentFragment();\n var parts = text.split(regex);\n parts.forEach(function(part, i) {\n if (i % 2 === 0) {\n frag.appendChild(document.createTextNode(part));\n } else {\n var span = document.createElement('span');\n span.className = 'userscript-highlight';\n span.textContent = part;\n frag.appendChild(span);\n }\n });\n node.parentNode.replaceChild(frag, node);\n }\n });\n } else if (node.nodeType === 1 && node.childNodes) { // element\n var skipTags = ['SCRIPT', 'STYLE', 'NOSCRIPT', 'TEXTAREA', 'INPUT', 'SELECT'];\n if (!skipTags.includes(node.tagName)) {\n Array.from(node.childNodes).forEach(highlight);\n }\n }\n }\n \n highlight(document.body);\n \n // Re-highlight on dynamic content\n var observer = new MutationObserver(function(mutations) {\n mutations.forEach(function(m) {\n m.addedNodes.forEach(function(node) {\n if (node.nodeType === 1 || node.nodeType === 3) highlight(node);\n });\n });\n });\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Highlight Search Terms"); } } catch(__e) { console.warn('[Userscript:Highlight Search Terms]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Strip utm_, fbclid, gclid, etc. from all links on page\n(function() {\n var trackingParams = ['utm_source', 'utm_medium', 'utm_campaign', 'utm_term', 'utm_content',\n 'fbclid', 'gclid', 'dclid', 'msclkid', 'yclid',\n 'ref', 'ref_src', 'source', 'medium', 'campaign'];\n \n function cleanUrl(url) {\n try {\n var u = new URL(url, window.location.origin);\n var changed = false;\n trackingParams.forEach(function(p) {\n if (u.searchParams.has(p)) {\n u.searchParams.delete(p);\n changed = true;\n }\n });\n return changed ? u.toString() : url;\n } catch (e) {\n return url;\n }\n }\n \n function cleanLinks() {\n document.querySelectorAll('a[href]').forEach(function(a) {\n var clean = cleanUrl(a.href);\n if (clean !== a.href) a.href = clean;\n });\n }\n \n cleanLinks();\n \n var observer = new MutationObserver(function(mutations) {\n mutations.forEach(function(m) {\n m.addedNodes.forEach(function(node) {\n if (node.nodeType === 1) {\n if (node.tagName === 'A') cleanLinks();\n node.querySelectorAll('a[href]').forEach(function(a) {\n var clean = cleanUrl(a.href);\n if (clean !== a.href) a.href = clean;\n });\n }\n });\n });\n });\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "Remove Tracking Parameters from Links"); } } catch(__e) { console.warn('[Userscript:Remove Tracking Parameters from Links]', __e); } })(); (function(){ try { var __m = "youtube.com"; var __re = new RegExp('^' + "youtube\\.com" + '
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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Auto-enable theater mode on YouTube\n(function() {\n function tryTheater() {\n var btn = document.querySelector('button[aria-label=\"Theater mode\"], ytd-player #player button[title=\"Theater mode\"]');\n if (btn && !btn.classList.contains('activated')) {\n btn.click();\n }\n }\n \n // Try immediately\n tryTheater();\n \n // Try after navigation (SPA)\n var lastUrl = location.href;\n setInterval(function() {\n if (location.href !== lastUrl) {\n lastUrl = location.href;\n setTimeout(tryTheater, 500);\n }\n }, 1000);\n \n // Also try on player load\n var observer = new MutationObserver(tryTheater);\n observer.observe(document.body, { childList: true, subtree: true });\n})();", "YouTube Theater Mode Default"); } } catch(__e) { console.warn('[Userscript:YouTube Theater Mode Default]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
Skip to content

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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

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, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Remove or un-stick sticky/fixed headers that block content\n(function() {\n function unstick() {\n document.querySelectorAll('header, nav, [role=\"banner\"], .header, .navbar, .sticky, .fixed-top, [style*=\"position: fixed\"], [style*=\"position:sticky\"]').forEach(function(el) {\n if (el.style.position === 'fixed' || el.style.position === 'sticky' || \n getComputedStyle(el).position === 'fixed' || getComputedStyle(el).position === 'sticky') {\n el.style.position = 'static';\n el.style.top = 'auto';\n el.style.zIndex = 'auto';\n }\n });\n }\n \n unstick();\n \n var observer = new MutationObserver(unstick);\n observer.observe(document.body, { childList: true, subtree: true, attributes: true, attributeFilter: ['style', 'class'] });\n})();", "Kill Sticky Headers"); } } catch(__e) { console.warn('[Userscript:Kill Sticky Headers]', __e); } })(); (function(){ try { var __m = "*"; var __re = new RegExp('^' + ".*" + '
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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages

, 'i'); if (__m === '*' || __re.test(location.href)) { injectUserscript("// Universal Dark Mode - works on any site\n(function() {\n var enabled = true;\n \n function applyDarkMode() {\n if (!enabled) return;\n \n // Create style element if it doesn't exist\n var style = document.getElementById('universal-dark-mode-style');\n if (!style) {\n style = document.createElement('style');\n style.id = 'universal-dark-mode-style';\n document.head.appendChild(style);\n }\n \n // Dark mode CSS - inverts colors but preserves images/video\n style.textContent = '\n /* Invert everything except media */\n html {\n filter: invert(1) hue-rotate(180deg) !important;\n background: #1a1a2e !important;\n }\n \n /* Restore images, videos, iframes, canvas */\n img, video, iframe, canvas, svg, picture, [style*=\"background-image\"] {\n filter: invert(1) hue-rotate(180deg) !important;\n }\n \n /* Preserve specific elements that should not be inverted */\n .no-dark-mode, .no-dark-mode *,\n [data-theme=\"light\"], [data-theme=\"light\"],\n .ace_editor, .ace_editor *,\n .CodeMirror, .CodeMirror *,\n .monaco-editor, .monaco-editor *,\n .markdown-body pre, .markdown-body pre *,\n .highlight, .highlight *,\n pre code, pre code * {\n filter: none !important;\n }\n \n /* Fix common UI elements */\n .modal, .popup, .dropdown-menu, .tooltip, .popover {\n filter: invert(1) hue-rotate(180deg) !important;\n background: #2d2d44 !important;\n border-color: #444 !important;\n }\n \n /* Scrollbars */\n ::-webkit-scrollbar { background: #1a1a2e !important; }\n ::-webkit-scrollbar-thumb { background: #444 !important; }\n ::-webkit-scrollbar-thumb:hover { background: #555 !important; }\n \n /* Selection */\n ::selection { background: #4ecdc4 !important; color: #1a1a2e !important; }\n ::-moz-selection { background: #4ecdc4 !important; color: #1a1a2e !important; }\n ';\n }\n \n function removeDarkMode() {\n var style = document.getElementById('universal-dark-mode-style');\n if (style) style.remove();\n }\n \n // Toggle with Alt+Shift+D\n document.addEventListener('keydown', function(e) {\n if (e.altKey && e.shiftKey && e.key === 'D') {\n e.preventDefault();\n enabled = !enabled;\n if (enabled) {\n applyDarkMode();\n console.log('[Universal Dark Mode] Enabled');\n } else {\n removeDarkMode();\n console.log('[Universal Dark Mode] Disabled');\n }\n }\n });\n \n // Apply on load\n applyDarkMode();\n \n // Re-apply on dynamic content\n var observer = new MutationObserver(function(mutations) {\n if (enabled && !document.getElementById('universal-dark-mode-style')) {\n applyDarkMode();\n }\n });\n observer.observe(document.head, { childList: true });\n \n console.log('[Universal Dark Mode] Loaded - Press Alt+Shift+D to toggle');\n})();", "Universal Dark Mode"); } } catch(__e) { console.warn('[Userscript:Universal Dark Mode]', __e); } })(); })();
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layer - neural network inference from the command line

layer is a program for doing neural network inference the Unix way. Many modern neural network operations can be represented as sequential, unidirectional streams of data processed by pipelines of filters. The computations at each layer in these neural networks are equivalent to an invocation of the layer program, and multiple invocations can be chained together to represent the entirety of such networks.

For example, performing inference on a neural network with two fully-connected layers might look something like this:

cat input | layer full -w w.1 --input-shape=2 -f tanh | layer full -w w.2 --input-shape=3 -f sigmoid

layer applies the Unix philosophy to neural network inference. Each type of a neural network layer is a distinct subcommand. Simple text streams of delimited numeric values serve as the interface between different layers of a neural network. Each invocation of layer does one thing: it feeds the numeric input values forward through an instantiation of a neural network layer, then emits the resulting output numeric values.

Usage

Example: a convolutional neural network for CIFAR-10.

$ cat cifar10_x.csv \
| layer convolutional -w w0.csv -b b0.csv --input-shape=32,32,3 --filter-shape=3,3 --num-filters=32 -f relu \
| layer convolutional -w w1.csv -b b1.csv --input-shape=30,30,32 --filter-shape=3,3 --num-filters=32 -f relu \
| layer pooling --input-shape=28,28,32 --filter-shape=2,2 --stride=2 -f max

Example: a multi-layer perceptron for XOR.

$ # Fully connected layer with three neuronsecho"-2.35546875,-2.38671875,3.63671875,3.521484375,-2.255859375,-2.732421875"> layer1.weights
echo"0.7958984375,0.291259765625,1.099609375"> layer1.biases
$ # Fully connected layer with one neuronecho"-5.0625,-3.515625,-5.0625"> layer2.weights
echo"1.74609375"> layer2.biases
$ # Compute XOR for all possible binary inputsecho -e "0,0\n0,1\n1,0\n1,1" \
| layer full -w layer1.weights -b layer1.biases --input-shape=2 -f tanh \
| layer full -w layer2.weights -b layer2.biases --input-shape=3 -f sigmoid
0.00129012749948779
0.99147053740106
0.991243357927591
0.0111237568184365

Installation

Requirements: BLAS 3.6.0+

  1. Download a release
  2. Install BLAS 3.6.0+
  • On Debian-based systems: apt-get install -y libblas3
  • On RPM-based system: yum install -y blas
  • On macOS 10.3+, BLAS is pre-installed as part of the Accelerate framework
  1. Unzip the release and run [sudo] ./install.sh, or manually relocate the binaries to the path of your choice.

About

layer is currently implemented as a proof-of-concept and supports a limited number of neural network layer types. The types of layers are currently limited to feed-forward layers that can be modeled as sequential, unidirectional pipelines.

Input values, weights and biases for parameterized layers, and output values are all read and written in row-major order, based on the shape parameters specified for each layer.

layer is implemented in CHICKEN Scheme.

License

Copyright © 2018-2019

Releases

Packages

Used by

Contributors

Languages