math-help

Guide to the math cognitive stack - what tools exist and when to use each

INSTALLATION
npx skills add https://github.com/parcadei/continuous-claude-v3 --skill math-help
Run in your project or agent environment. Adjust flags if your CLI version differs.

SKILL.md

Math Cognitive Stack Guide

Cognitive prosthetics for exact mathematical computation. This guide helps you choose the right tool for your math task.

Quick Reference

I want to...

Use this

Example

Solve equations

sympy_compute.py solve

solve "x**2 - 4 = 0" --var x

Integrate/differentiate

sympy_compute.py

integrate "sin(x)" --var x

Compute limits

sympy_compute.py limit

limit "sin(x)/x" --var x --to 0

Matrix operations

sympy_compute.py / numpy_compute.py

det "[[1,2],[3,4]]"

Verify a reasoning step

math_scratchpad.py verify

verify "x = 2 implies x^2 = 4"

Check a proof chain

math_scratchpad.py chain

chain --steps '[...]'

Get progressive hints

math_tutor.py hint

hint "Solve x^2 - 4 = 0" --level 2

Generate practice problems

math_tutor.py generate

generate --topic algebra --difficulty 2

Prove a theorem (constraints)

z3_solve.py prove

prove "x + y == y + x" --vars x y

Check satisfiability

z3_solve.py sat

sat "x > 0, x < 10, x*x == 49"

Optimize with constraints

z3_solve.py optimize

optimize "x + y" --constraints "..."

Plot 2D/3D functions

math_plot.py

plot2d "sin(x)" --range -10 10

Arbitrary precision

mpmath_compute.py

pi --dps 100

Numerical optimization

scipy_compute.py

minimize "x**2 + 2*x" "5"

Formal machine proof

Lean 4 (lean4 skill)

/lean4

The Five Layers

Layer 1: SymPy (Symbolic Algebra)

When: Exact algebraic computation - solving, calculus, simplification, matrix algebra.

Key Commands:

# Solve equation

uv run python -m runtime.harness scripts/sympy_compute.py \

    solve "x**2 - 5*x + 6 = 0" --var x --domain real

# Integrate

uv run python -m runtime.harness scripts/sympy_compute.py \

    integrate "sin(x)" --var x

# Definite integral

uv run python -m runtime.harness scripts/sympy_compute.py \

    integrate "x**2" --var x --bounds 0 1

# Differentiate (2nd order)

uv run python -m runtime.harness scripts/sympy_compute.py \

    diff "x**3" --var x --order 2

# Simplify (trig strategy)

uv run python -m runtime.harness scripts/sympy_compute.py \

    simplify "sin(x)**2 + cos(x)**2" --strategy trig

# Limit

uv run python -m runtime.harness scripts/sympy_compute.py \

    limit "sin(x)/x" --var x --to 0

# Matrix eigenvalues

uv run python -m runtime.harness scripts/sympy_compute.py \

    eigenvalues "[[1,2],[3,4]]"

Best For: Closed-form solutions, calculus, exact algebra.

Layer 2: Z3 (Constraint Solving &#x26; Theorem Proving)

When: Proving theorems, checking satisfiability, constraint optimization.

Key Commands:

# Prove commutativity

uv run python -m runtime.harness scripts/cc_math/z3_solve.py \

    prove "x + y == y + x" --vars x y --type int

# Check satisfiability

uv run python -m runtime.harness scripts/cc_math/z3_solve.py \

    sat "x > 0, x < 10, x*x == 49" --type int

# Optimize

uv run python -m runtime.harness scripts/cc_math/z3_solve.py \

    optimize "x + y" --constraints "x >= 0, y >= 0, x + y <= 100" \

    --direction maximize --type real

Best For: Logical proofs, constraint satisfaction, optimization with constraints.

Layer 3: Math Scratchpad (Reasoning Verification)

When: Verifying step-by-step reasoning, checking derivation chains.

Key Commands:

# Verify single step

uv run python -m runtime.harness scripts/cc_math/math_scratchpad.py \

    verify "x = 2 implies x^2 = 4"

# Verify with context

uv run python -m runtime.harness scripts/cc_math/math_scratchpad.py \

    verify "x^2 = 4" --context '{"x": 2}'

# Verify chain of reasoning

uv run python -m runtime.harness scripts/cc_math/math_scratchpad.py \

    chain --steps '["x^2 - 4 = 0", "(x-2)(x+2) = 0", "x = 2 or x = -2"]'

# Explain a step

uv run python -m runtime.harness scripts/cc_math/math_scratchpad.py \

    explain "d/dx(x^3) = 3*x^2"

Best For: Checking your work, validating derivations, step-by-step verification.

Layer 4: Math Tutor (Educational)

When: Learning, getting hints, generating practice problems.

Key Commands:

# Step-by-step solution

uv run python scripts/cc_math/math_tutor.py steps "x**2 - 5*x + 6 = 0" --operation solve

# Progressive hint (level 1-5)

uv run python scripts/cc_math/math_tutor.py hint "Solve x**2 - 4 = 0" --level 2

# Generate practice problem

uv run python scripts/cc_math/math_tutor.py generate --topic algebra --difficulty 2

Best For: Learning, tutoring, practice.

Layer 5: Lean 4 (Formal Proofs)

When: Rigorous machine-verified mathematical proofs, category theory, type theory.

Access: Use /lean4 skill for full documentation.

Best For: Publication-grade proofs, dependent types, category theory.

Numerical Tools

For numerical (not symbolic) computation:

NumPy (160 functions)

# Matrix operations

uv run python scripts/cc_math/numpy_compute.py det "[[1,2],[3,4]]"

uv run python scripts/cc_math/numpy_compute.py inv "[[1,2],[3,4]]"

uv run python scripts/cc_math/numpy_compute.py eig "[[1,2],[3,4]]"

uv run python scripts/cc_math/numpy_compute.py svd "[[1,2,3],[4,5,6]]"

# Solve linear system

uv run python scripts/cc_math/numpy_compute.py solve "[[3,1],[1,2]]" "[9,8]"

SciPy (289 functions)

# Minimize function

uv run python scripts/cc_math/scipy_compute.py minimize "x**2 + 2*x" "5"

# Find root

uv run python scripts/cc_math/scipy_compute.py root "x**3 - x - 2" "1.5"

# Curve fitting

uv run python scripts/cc_math/scipy_compute.py curve_fit "a*exp(-b*x)" "0,1,2,3" "1,0.6,0.4,0.2" "1,0.5"

mpmath (153 functions, arbitrary precision)

# Pi to 100 decimal places

uv run python scripts/cc_math/mpmath_compute.py pi --dps 100

# Arbitrary precision sqrt

uv run python -m scripts.mpmath_compute mp_sqrt "2" --dps 100

Visualization

math_plot.py

# 2D plot

uv run python scripts/cc_math/math_plot.py plot2d "sin(x)" \

    --var x --range -10 10 --output plot.png

# 3D surface

uv run python scripts/cc_math/math_plot.py plot3d "x**2 + y**2" \

    --xvar x --yvar y --range 5 --output surface.html

# Multiple functions

uv run python scripts/cc_math/math_plot.py plot2d-multi "sin(x),cos(x)" \

    --var x --range -6.28 6.28 --output multi.png

# LaTeX rendering

uv run python scripts/cc_math/math_plot.py latex "\\int e^{-x^2} dx" --output equation.png

Educational Features

5-Level Hint System

Level

Category

What You Get

1

Conceptual

General direction, topic identification

2

Strategic

Approach to use, technique selection

3

Tactical

Specific steps, intermediate goals

4

Computational

Intermediate results, partial solutions

5

Answer

Full solution with explanation

Usage:

# Start with conceptual hint

uv run python scripts/cc_math/math_tutor.py hint "integrate x*sin(x)" --level 1

# Get more specific guidance

uv run python scripts/cc_math/math_tutor.py hint "integrate x*sin(x)" --level 3

Step-by-Step Solutions

uv run python scripts/cc_math/math_tutor.py steps "x**2 - 5*x + 6 = 0" --operation solve

Returns structured steps with:

  • Step number and type
  • From/to expressions
  • Rule applied
  • Justification

Common Workflows

Workflow 1: Solve and Verify

  • Solve with sympy_compute.py
  • Verify solution with math_scratchpad.py
  • Plot to visualize (optional)
# Solve

uv run python -m runtime.harness scripts/sympy_compute.py \

    solve "x**2 - 4 = 0" --var x

# Verify the solutions work

uv run python -m runtime.harness scripts/cc_math/math_scratchpad.py \

    verify "x = 2 implies x^2 - 4 = 0"

Workflow 2: Learn a Concept

  • Generate practice problem with math_tutor.py
  • Use progressive hints (level 1, then 2, etc.)
  • Get full solution if stuck
# Generate problem

uv run python scripts/cc_math/math_tutor.py generate --topic calculus --difficulty 2

# Get hints progressively

uv run python scripts/cc_math/math_tutor.py hint "..." --level 1

uv run python scripts/cc_math/math_tutor.py hint "..." --level 2

# Full solution

uv run python scripts/cc_math/math_tutor.py steps "..." --operation integrate

Workflow 3: Prove and Formalize

  • Check theorem with z3_solve.py (constraint-level proof)
  • If rigorous proof needed, use Lean 4
# Quick check with Z3

uv run python -m runtime.harness scripts/cc_math/z3_solve.py \

    prove "x*y == y*x" --vars x y --type int

# For formal proof, use /lean4 skill

Choosing the Right Tool

Is it SYMBOLIC (exact answers)?

  └─ Yes → Use SymPy

      ├─ Equations → sympy_compute.py solve

      ├─ Calculus → sympy_compute.py integrate/diff/limit

      └─ Simplify → sympy_compute.py simplify

Is it a PROOF or CONSTRAINT problem?

  └─ Yes → Use Z3

      ├─ True/False theorem → z3_solve.py prove

      ├─ Find values → z3_solve.py sat

      └─ Optimize → z3_solve.py optimize

Is it NUMERICAL (approximate answers)?

  └─ Yes → Use NumPy/SciPy

      ├─ Linear algebra → numpy_compute.py

      ├─ Optimization → scipy_compute.py minimize

      └─ High precision → mpmath_compute.py

Need to VERIFY reasoning?

  └─ Yes → Use Math Scratchpad

      ├─ Single step → math_scratchpad.py verify

      └─ Chain → math_scratchpad.py chain

Want to LEARN/PRACTICE?

  └─ Yes → Use Math Tutor

      ├─ Hints → math_tutor.py hint

      └─ Practice → math_tutor.py generate

Need MACHINE-VERIFIED formal proof?

  └─ Yes → Use Lean 4 (see /lean4 skill)

Related Skills

  • /math or /math-mode - Quick access to the orchestration skill
  • /lean4 - Formal theorem proving with Lean 4
  • /lean4-functors - Category theory functors
  • /lean4-nat-trans - Natural transformations
  • /lean4-limits - Limits and colimits

Requirements

All math scripts are installed via:

uv sync

Dependencies: sympy, z3-solver, numpy, scipy, mpmath, matplotlib, plotly

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