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Cs Math

  • 70 installs
  • 6 repo stars
  • Updated March 13, 2026
  • alphaonedev/openclaw-graph

cs-math is a Claude skill that computes CS mathematics: discrete math, combinatorics, probability, linear algebra, and calculus for machine learning.

About

This skill performs computer science math computations: discrete math, combinatorics, probability, linear algebra, and calculus for machine learning. A developer uses it to calculate probabilities in algorithms, solve linear systems for ML models, or compute gradients for loss functions. It accepts JSON operation parameters over CLI and API and returns results as JSON.

  • Combinatorics: permutations and combinations
  • Linear algebra: matrix multiplication, determinants, eigenvalues
  • Calculus for ML: gradients and partial derivatives

Cs Math by the numbers

  • 70 all-time installs (skills.sh)
  • Ranked #874 of 2,064 Data Science & ML skills by installs in the Skillselion catalog
  • Data as of Jul 28, 2026 (Skillselion catalog sync)
At a glance

cs-math capabilities & compatibility

Capabilities
linear algebra · probability computation · gradient computation
Use cases
data analysis · research
From the docs

What cs-math says it does

This skill enables OpenClaw to perform computations in computer science mathematics, covering discrete math (e.g., sets, graphs), combinatorics (e.g., permutations), probability (e.g., distributions),
SKILL.md
Support calculus for ML: compute gradients, partial derivatives for loss functions.
SKILL.md
npx skills add https://github.com/alphaonedev/openclaw-graph --skill cs-math

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Listed on Skillselion
Installs70
repo stars6
Last updatedMarch 13, 2026
Repositoryalphaonedev/openclaw-graph

What it does

Compute CS math: discrete math, combinatorics, probability, linear algebra, and calculus for ML (gradients).

Who is it for?

Running programmatic math for algorithms, statistics, and ML model computations.

Skip if: Informal or general math questions where precise programmatic computation is not needed.

When should I use this skill?

You need precise math computations like matrix operations, probabilities, or gradients in code.

What you get

Computed math results (permutations, matrix products, gradients) returned as JSON.

By the numbers

  • Covers 5 math areas: discrete, combinatorics, probability, linear algebra, calculus

Files

SKILL.mdMarkdownGitHub ↗

cs-math

Purpose

This skill enables OpenClaw to perform computations in computer science mathematics, covering discrete math (e.g., sets, graphs), combinatorics (e.g., permutations), probability (e.g., distributions), linear algebra (e.g., matrix operations), and calculus for ML (e.g., gradients), using optimized algorithms.

When to Use

Use this skill for tasks involving mathematical computations in code, such as calculating probabilities in algorithms, solving linear systems for ML models, or analyzing combinatorics in data structures. Apply it when precise, programmatic math is needed, like in optimization problems or statistical analysis, rather than general queries.

Key Capabilities

  • Compute discrete math operations: permutations, combinations, graph traversals (e.g., via adjacency matrices).
  • Handle probability: calculate expected values, binomial probabilities, or simulate distributions.
  • Perform linear algebra: matrix multiplication, determinants, inverses, and eigenvalue calculations.
  • Support calculus for ML: compute gradients, partial derivatives for loss functions.
  • Integrate with data: process arrays or vectors from inputs, returning results as JSON.

Usage Patterns

Invoke the skill via OpenClaw's CLI or API by specifying an operation and parameters. Always pass inputs as a JSON object for consistency. For example, in Python code: import openclaw; result = openclaw.invoke_skill('cs-math', {'operation': 'permutation', 'n': 5, 'r': 3}). Handle outputs as dictionaries, e.g., check for a 'result' key. Use try-except blocks for API calls to catch failures. If reusing parameters, store them in a config file like JSON: {"default_n": 5}, and load it before invoking.

Common Commands/API

Use the OpenClaw CLI: openclaw cs-math --operation calculate --params '{"type": "permutation", "n": 5, "r": 3}' --output json For API, send a POST to /api/skills/cs-math/execute with headers {'Authorization': 'Bearer $OPENCLAW_API_KEY'} and body: {"operation": "matrix_multiply", "A": [[1,2],[3,4]], "B": [[5,6],[7,8]]} Config format: Parameters must be JSON objects, e.g., {"operation": "probability", "distribution": "binomial", "n": 10, "p": 0.5}. Common flags: --verbose for debug output, --timeout 30 for setting API timeouts in seconds. Code snippet for Python: import openclaw params = {"operation": "gradient", "function": "x2 + y2", "at": [1,1]} result = openclaw.invoke('cs-math', params) print(result['value']) # Outputs the gradient vector

Integration Notes

Integrate by setting the environment variable for authentication: export OPENCLAW_API_KEY=your_api_key_value. In code, import the OpenClaw library and call skills like: openclaw.set_api_key(os.environ['OPENCLAW_API_KEY']); openclaw.invoke('cs-math', params). For web apps, use the SDK to handle retries: openclaw.configure(retries=3). Ensure inputs are validated against schema, e.g., use JSON Schema for params. If embedding in larger workflows, chain with other skills via OpenClaw's event system, like triggering 'algorithms' skill after a math computation.

Error Handling

Always check the response for an 'error' key, e.g., if result.get('error'), raise a custom exception. Common errors: InvalidInputError for non-numeric params (e.g., negative 'n' in permutations), handle with: try: openclaw.invoke('cs-math', {'operation': 'permutation', 'n': -1}) except ValueError as e: log_error(e). For API timeouts, use --timeout flag and catch HTTP errors: if response.status_code == 504, retry up to 3 times. Validate inputs beforehand, e.g., ensure matrices are square for inverses using: if not all(len(row) == len(matrix) for row in matrix): raise Error. Log detailed errors with --verbose flag for debugging.

Concrete Usage Examples

1. Calculate permutations for arranging 5 items taken 3 at a time: Use code: import openclaw; params = {"operation": "permutation", "n": 5, "r": 3}; result = openclaw.invoke('cs-math', params); print(result['result']) # Outputs: 10 2. Perform matrix multiplication for two 2x2 matrices: Use code: import openclaw; A = [[1,2],[3,4]]; B = [[5,6],[7,8]]; params = {"operation": "matrix_multiply", "A": A, "B": B}; result = openclaw.invoke('cs-math', params); print(result['result']) # Outputs: [[19,22],[43,50]]

Graph Relationships

  • Belongs to cluster: computer-science
  • Related tags: math, discrete, probability, linear-algebra, combinatorics, statistics
  • Connected skills: algorithms (for applying math to sorting/complexity), data-science (for statistical integrations), ml-foundations (for calculus in training models)

Related skills

FAQ

What math areas does cs-math cover?

Discrete math, combinatorics, probability, linear algebra, and calculus for ML including gradients.

How are inputs passed?

As a JSON object specifying the operation and parameters, returning results as JSON.

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