
root-finding
by parcadei
Context management for Claude Code. Hooks maintain state via ledgers and handoffs. MCP execution without context pollution. Agent orchestration with isolated context windows.
Use Cases
MCP Server Integration
AI tool integration using Model Context Protocol. Using root-finding.
API Integration
Easily build API integrations with external services.
Data Synchronization
Automatically sync data between multiple systems.
Webhook Setup
Enable event-driven integrations with webhooks.
SKILL.md
name: root-finding description: "Problem-solving strategies for root finding in numerical methods" allowed-tools: [Bash, Read]
Root Finding
When to Use
Use this skill when working on root-finding problems in numerical methods.
Decision Tree
-
Characterize the Problem
- Single root or multiple roots?
- Bracketed (know interval containing root)?
- Derivatives available?
-
Method Selection
Situation Method Implementation Bracketed, no derivatives Bisection, Brent scipy.optimize.brentqDerivatives available Newton-Raphson scipy.optimize.newtonNo derivatives Secant method scipy.optimize.newton(no fprime)System of equations scipy.optimize.fsolveRequires Jacobian ideally -
Implement Root Finding
scipy.optimize.brentq(f, a, b)- guaranteed convergence if bracketedscipy.optimize.newton(f, x0, fprime=df)- quadratic convergence near root- For systems:
scipy.optimize.fsolve(F, x0)
-
Handle Multiple Roots
- Deflation: divide out found roots
- Multiple starting points
sympy_compute.py solve "f(x)" --var xfor symbolic solutions
-
Verify Solutions
- Check |f(root)| < tolerance
- Verify root is in expected domain
z3_solve.py prove "f(root) == 0"
Tool Commands
Scipy_Brentq
uv run python -c "from scipy.optimize import brentq; root = brentq(lambda x: x**2 - 2, 0, 2); print('Root:', root)"
Scipy_Newton
uv run python -c "from scipy.optimize import newton; root = newton(lambda x: x**2 - 2, 1.0, fprime=lambda x: 2*x); print('Root:', root)"
Sympy_Solve
uv run python -m runtime.harness scripts/sympy_compute.py solve "x**3 - x - 1" --var x
Key Techniques
From indexed textbooks:
- [Numerical analysis (Burden R.L., Fair... (Z-Library)] How accurate was his approximation? C H A P T E R 2 Solutions of Equations in One Variable 2. Survey of Methods and Software In this chapter we have considered the problem of solving the equation f (x) = 0, where f is a given continuous function.
- [An Introduction to Numerical Analysis... (Z-Library)] Computational Solution of Nonlinear Operator Equations. Methods for Solving Systems of Nonlinear Equations. Society for Industrial and Applied Mathematics, Philadelphia.
- [An Introduction to Numerical Analysis... (Z-Library)] General polynomial rootfinding methods There are a large number of rootfind ing algorithms designed especially for polynomials. Many of these are taken up in detail in the books Dejon and Henrici (1969), Henrici (1974, chap. There are far too many types of such methods to attempt to describe them all here.
- [An Introduction to Numerical Analysis... (Z-Library)] J n Consider the product a 0 a 1 ••• am, where a 0 , a1, ••• , am are m + 1 num bers stored in a computer that uses n digit base fJ arithmetic. What is a rigorous bound for w? What is a statistical estimate for the size of w?
- [An Introduction to Numerical Analysis... (Z-Library)] Discussion of the Literature There is a large literature on methods for calculating the roots of a single equation. See the books by Householder (1970), Ostrowski (1973), and Traub (1964) for a more extensive development than has been given here. Newton's method is one of the most widely used methods, and its development is due to many people.
Cognitive Tools Reference
See .claude/skills/math-mode/SKILL.md for full tool documentation.
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