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math-model-selector

math-model-selector

github.com/parcadeiOther3.9k102 installsUpdated 39w ago
Repository

About math-model-selector

A question-guided skill for selecting a mathematical framework, aimed at people unsure which mathematical domain fits a problem. It considers change, uncertainty, optimization, and the required precision.

Key features

  1. 01Select a domain from problem characteristics
  2. 02Distinguish discrete and continuous change
  3. 03Assess randomness and uncertainty
  4. 04Check optimization goals and types
  5. 05Choose methods by required precision

Use cases

  1. 01Identify a suitable framework for a real-world problem
  2. 02Choose an initial equation or method for modeling
  3. 03Select analysis or simulation based on desired precision

Install

Copy the command and run it in a terminal.

$npx skills add https://github.com/parcadei/continuous-claude-v3 --skill math-model-selector

After installing, type/math-model-selectorin Claude Code to confirm it loaded.

Details

From the project README

Math Model Selector

When to Use

Trigger on phrases like:

  • "what math should I use"
  • "which mathematical framework"
  • "how do I model this"
  • "what kind of problem is this"
  • "formalize this problem"

Use when user has a problem but doesn't know which mathematical domain applies.

Process

Guide user through decision tree using Polya-style questions:

1. Identify the quantity

Ask: "What quantity or phenomenon are you trying to understand?"

  • Physics problem -> conservation laws, differential equations
  • Economics -> equilibrium, optimization
  • Data patterns -> statistics, regression
2. Characterize change

Ask: "What changes, and how does it change?"

  • Discrete steps -> difference equations, recurrences
  • Continuous rate -> ODEs
  • Rate of rate matters -> 2nd order ODEs
  • Spatial variation -> PDEs
3. Check for uncertainty

Ask: "Is there randomness or uncertainty involved?"

  • Deterministic -> standard analysis
  • Epistemic uncertainty -> Bayesian methods
  • Random process -> probability theory, stochastic processes
4. Optimization check

Ask: "Are you optimizing something?"

  • Convex objective -> linear/quadratic programming
  • Non-convex -> gradient descent, evolutionary methods
  • Discrete choices -> combinatorics, integer programming
5. Answer precision

Ask: "What level of answer do you need?"

  • Rough estimate -> dimensional analysis
  • Qualitative behavior -> phase portraits, stability
  • Numerical answer -> simulation
  • Exact closed form -> analytical methods

Key Questions to Ask

  1. What changes? (discrete vs continuous)
  2. What causes the change? (rate dependencies)
  3. What's random? (uncertainty type)
  4. What's being optimized? (objective function)
  5. How precise? (qualitative vs quantitative)

Output Format

Framework Recommendation:
- Primary: [framework name]
- Why: [one-sentence justification]

Starting Point:
- Key equations: [relevant formulas]
- Initial approach: [first step]

Tools to Use:
- [specific script or computation tool]

Related Skills:
- [domain skill to activate next]

Example Interaction

User: I want to model how a rumor spreads through a population

Claude: Let me help you find the right framework.

Q1: What quantity are we tracking?
> Number of people who heard the rumor over time.

Q2: What causes it to change?
> Spread rate depends on who knows and who doesn't.

Q3: Is there randomness?
> Assume deterministic (average behavior) for now.

Q4: Optimizing anything?
> No, just understanding dynamics.

Q5: What precision?
> Qualitative behavior, maybe predict peak rate.

Framework Recommendation:
- Primary: First-order ODE (logistic growth)
- Why: Rate depends on current state nonlinearly

Starting Point:
- dN/dt = r * N * (1 - N/K)
- N = heard count, K = population, r = spread rate

Tools:
- sympy_compute.py solve (equilibrium)
- Phase line for qualitative behavior

Related Skills:
- math/math-intuition-builder (understand the model)
- odes-pdes/first-order-odes (solve it)

Co-activates

After framework selection, suggest:

  • math-intuition-builder - to understand the framework
  • Relevant domain skill - for actual computation
  • math-mode - for symbolic verification

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