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contour-integrals

majiayu000
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について

このClaudeスキルは、複素解析における周回積分問題を解くための構造化された戦略を提供し、積分の種類に基づいて適切な輪郭を選択するための決定木を含みます。特異点の特定を支援し、半円形、鍵穴形、単位円などの特定の輪郭設定を推奨します。三角関数、分岐切断、無限極限を含む積分に取り組む際に開発者が利用できます。

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Claude Code

推奨
プラグインコマンド推奨
/plugin add https://github.com/majiayu000/claude-skill-registry
Git クローン代替
git clone https://github.com/majiayu000/claude-skill-registry.git ~/.claude/skills/contour-integrals

このコマンドをClaude Codeにコピー&ペーストしてスキルをインストールします

ドキュメント

Contour Integrals

When to Use

Use this skill when working on contour-integrals problems in complex analysis.

Decision Tree

  1. Integral Type Selection

    • For integral_{-inf}^{inf} f(x)dx where f decays like 1/x^a, a > 1:
      • Use semicircular contour (upper or lower half-plane)
    • For integral involving e^{ix} or trigonometric functions:
      • Close in upper half-plane for e^{ix} (Jordan's lemma)
      • Close in lower half-plane for e^{-ix}
    • For integral_0^{2pi} f(cos theta, sin theta)d theta:
      • Substitute z = e^{i theta}, use unit circle contour
    • For integrand with branch cuts:
      • Use keyhole or dogbone contour around cuts
  2. Contour Setup

    • Identify singularities and their locations
    • Choose contour that encloses desired singularities
    • sympy_compute.py solve "f(z) = inf" to find poles
  3. Jordan's Lemma

    • For integral over semicircle of radius R:
    • If |f(z)| -> 0 as |z| -> inf, semicircular contribution vanishes
  4. Compute with Residue Theorem

    • oint_C f(z)dz = 2pii * (sum of residues inside C)
    • sympy_compute.py residue "f(z)" --var z --at z0

Tool Commands

Sympy_Residue

uv run python -m runtime.harness scripts/sympy_compute.py residue "1/(z**2 + 1)" --var z --at I

Sympy_Poles

uv run python -m runtime.harness scripts/sympy_compute.py solve "z**2 + 1" --var z

Sympy_Integrate

uv run python -m runtime.harness scripts/sympy_compute.py integrate "1/(x**2 + 1)" --var x --from "-oo" --to "oo"

Key Techniques

From indexed textbooks:

  • [Complex Analysis (Elias M. Stein, Ram... (Z-Library)] The keyhole contour and one small, connected by a narrow corridor. The interior of Γ, which we denote by Γint, is clearly that region enclosed by the curve, and can be given precise meaning with enough work. We x a point z0 in that If f is holomorphic in a neighborhood of Γ and its interior, interior.
  • [Complex Analysis (Elias M. Stein, Ram... (Z-Library)] For the proof, consider a multiple keyhole which has a loop avoiding In each one of the poles. Let the width of the corridors go to zero. Suppose that f is holomorphic in an open set containing a toy contour γ and its interior, except for poles at the points z1, .
  • [Complex Analysis (Elias M. Stein, Ram... (Z-Library)] CAUCHY’S THEOREM AND ITS APPLICATIONS The following denition is loosely stated, although its applications will be clear and unambiguous. We call a toy contour any closed curve where the notion of interior is obvious, and a construction similar to that in Theorem 2. Its positive orientation is that for which the interior is to the left as we travel along the toy contour.
  • [Complex Analysis (Elias M. Stein, Ram... (Z-Library)] Suppose that f is holomorphic in an open set containing a circle C and its interior, except for poles at the points z1, . The identity γ f (z) dz = 2πi N k=1 reszk f is referred to as the residue formula. Examples The calculus of residues provides a powerful technique to compute a wide range of integrals.
  • [Complex analysis an introduction to... (Z-Library)] Hint: Sketch the image of the imaginary axis and apply the argument principle to a large half disk. Evaluation of Definite Integrals. The calculus of residues pro¬ vides a very efficient tool for the evaluation of definite integrals.

Cognitive Tools Reference

See .claude/skills/math-mode/SKILL.md for full tool documentation.

GitHub リポジトリ

majiayu000/claude-skill-registry
パス: skills/contour-integrals

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