Physicists

Qubit Spectroscopy

执行量子比特单音能谱扫描。通过扫描 probe 频率并测量响应，确定 qubit 的基态到第一激发态跃迁频率 (f01)。

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Dqmc Analyze

Extract physical observables with error estimates from completed DQMC simulations. Use when computing density, double occupancy, spin correlations, structure factors, or any measured quantity from simulation data.

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Salud y Fitness

Physics Intuition

Use when motion needs to feel physically grounded—objects falling, characters jumping, things colliding, or any element that should obey believable weight and momentum.

Supraforge14

Documentos

Pdf Manual Search

基于pdf_manual_search工具的手册检索教程，可以查询《spec - X-Ray Diffraction Software》，B9同步辐射线站的操作手册以及安全和注意事项等、OpenDrSai智能体开发等手册内容。

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Académico

Science Skill Creator

Guide for creating effective skills for fundamental physics research. This skill should be used when users want to create a new skill (or update an existing skill) that extends Claude's capabilities with specialized scientific knowledge, research workflows, or physics tool integrations.

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Gwosc

Use when the user mentions 'GWOSC', 'gravitational waves', 'LIGO', 'Virgo', or asks to find gravitational wave events, get event parameters, or download strain data. GWOSC provides open data from gravitational wave detectors.

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Hepdata

Use when the user mentions 'HEPData' or asks to find experimental data, download data tables from HEP papers, get digitized plots, or retrieve cross-section measurements. HEPData contains data points behind figures in high-energy physics publications.

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磁気浮上の分析

Analyze magnetic levitation systems by applying Earnshaw's theorem to determine whether passive static levitation is possible, then identifying the appropriate circumvention mechanism (diamagnetic, superconducting, active feedback, or spin-stabilized). Use when evaluating maglev transport, magnetic bearings, superconducting levitation, diamagnetic suspension, or Levitron-type devices. Covers force balance calculations, stability analysis in all spatial and tilting modes, and Meissner effect versus flux pinning distinctions.

Adivinación y Misticismo

Solve Electromagnetic Induction

Resolver problemas que involucran flujo magnético cambiante usando la ley de Faraday, la ley de Lenz, FEM motriz, inductancia mutua y propia, y transitorios de circuitos RL. Usar al calcular FEM inducida por campos B variables en el tiempo o conductores en movimiento, al determinar la dirección de la corriente mediante la ley de Lenz, al analizar inductancia y almacenamiento de energía en campos magnéticos, o al resolver ecuaciones diferenciales de circuitos RL para transitorios de conmutación.

Formulate Quantum Problem

Formular un problema de mecánica cuántica o química cuántica con el marco matemático apropiado incluyendo espacio de Hilbert, operadores, condiciones de frontera, y selección de método de aproximación. Usar al plantear un problema de mecánica cuántica para solución analítica o numérica, al formular un cálculo de química cuántica, al traducir un escenario físico al formalismo de Schrodinger o Dirac, o al elegir entre teoría de perturbaciones, métodos variacionales, DFT y diagonalización exacta.

Computación Científica

Diffusionsdynamik analysieren

Analysieren the dynamics of diffusion processes using stochastic differential equations, Fokker-Planck equations, first-passage time distributions, and parameter sensitivity analysis. Verwenden wenn deriving probability density evolution for a continuous-time diffusion process, computing mean first-passage times for bounded diffusion, analyzing how drift and diffusion parameters affect process behavior, or validating closed-form solutions gegen stochastic simulation.

Educación

Derive Theoretical Result

Derivar un resultado teórico paso a paso desde primeros principios o teoremas establecidos, con cada paso justificado explícitamente y casos especiales verificados. Usar al derivar una fórmula o teorema desde primeros principios, al demostrar un enunciado matemático por deducción lógica, al re-derivar un resultado de libro de texto para verificación o adaptación, al extender un resultado conocido a un contexto más general, o al producir una derivación autocontenida para un artículo o tesis.

Analyze Magnetic Field

Calcular y visualizar campos magnéticos producidos por distribuciones de corriente usando la ley de Biot-Savart, la ley de Ampère y aproximaciones de dipolo magnético. Usar al calcular campos B de geometrías de corriente arbitrarias, al explotar simetría con la ley de Ampère, al analizar superposición de múltiples fuentes, o al caracterizar materiales magnéticos mediante permeabilidad, curvas B-H y comportamiento de histéresis.

Quantenproblem formulieren

Formulate a quantum mechanics or quantum chemistry problem with proper mathematical framework einschliesslich Hilbert space, operators, boundary conditions, and approximation method selection. Verwenden wenn setting up a quantum mechanics problem for analytic or numerical solution, formulating a quantum chemistry calculation, translating a physical scenario into the Schrodinger or Dirac formalism, or choosing zwischen perturbation theory, variational methods, DFT, and exact diagonalization.

Solve a Trigonometric Problem

Solve trigonometric equations and triangle problems systematically using identities, law of sines/cosines, inverse functions, and unit circle analysis. Covers equation solving, triangle resolution, identity verification, and applied trigonometric modeling. Use when solving trigonometric equations for unknown angles, resolving triangles from partial information (SSS, SAS, ASA), verifying identities, or applying trigonometry to real-world problems in surveying, physics, or engineering.

Computación Científica

Analyze Diffusion Dynamics

Analyze the dynamics of diffusion processes using stochastic differential equations, Fokker-Planck equations, first-passage time distributions, and parameter sensitivity analysis. Use when deriving probability density evolution for a continuous-time diffusion process, computing mean first-passage times for bounded diffusion, analyzing how drift and diffusion parameters affect process behavior, or validating closed-form solutions against stochastic simulation.

Analyze Magnetic Field

Calculate and visualize magnetic fields produced by current distributions using the Biot-Savart law, Ampere's law, and magnetic dipole approximations. Use when computing B-fields from arbitrary current geometries, exploiting symmetry with Ampere's law, analyzing superposition of multiple sources, or characterizing magnetic materials through permeability, B-H curves, and hysteresis behavior.

Formulate Maxwell Equations

Work with the full set of Maxwell's equations in integral and differential form to analyze electromagnetic fields, waves, and energy transport. Use when applying Gauss's law, Faraday's law, or the Ampere-Maxwell law to boundary value problems, deriving the electromagnetic wave equation, computing Poynting vector and radiation pressure, solving for fields at material interfaces, or connecting electrostatics and magnetostatics to the unified electromagnetic framework.

Formulate Quantum Problem

Formulate a quantum mechanics or quantum chemistry problem with proper mathematical framework including Hilbert space, operators, boundary conditions, and approximation method selection. Use when setting up a quantum mechanics problem for analytic or numerical solution, formulating a quantum chemistry calculation, translating a physical scenario into the Schrodinger or Dirac formalism, or choosing between perturbation theory, variational methods, DFT, and exact diagonalization.

Analyze Magnetic Field

使用毕奥-萨伐尔定律、安培定律和磁偶极子近似来计算和可视化电流分布产生的磁场。适用于计算任意电流几何结构的 B 场、利用安培定律的对称性、分析多源叠加，或通过磁导率、B-H 曲线和磁滞行为来表征磁性材料时。