Wikipedia is the source.
The structure is ours.

Lenz's law

An electromagnetic induction law with a bounded physical statement about direction. Eligible for independent scientific review, not yet admitted.

Joule–Thomson effect

A thermodynamic response of a real fluid during throttling; its physical scope is direct. Constant-enthalpy conditions still require scientific review.

Momentum operator

A quantum-mechanical observable/operator scope, including the canonical versus kinetic distinction. The scoped physical definition remains subject to independent admission evidence.

Green's theorem

The planar integral theorem has a specific mechanical use: computing work around a closed planar curve. Keep its home in Calculus, without confusing it with Green's identities.

Green's function

A Green kernel is a mathematical method with a concrete existing physical consumer: electrostatic potential with specified sources and boundary conditions.

Gauss–Bonnet theorem

The surface theorem remains in Differential Geometry and has a specific physical application in gravitational light deflection.

Hamiltonian path

This is graph theory, not Hamiltonian mechanics. Compact-polymer applications exist, but that physical model and its bounded mathematical prerequisites need review before adding a graph-theory branch.

Laplace distribution

An available probability group is insufficient for inclusion by itself. A concrete diffusion/resetting application was found, but that physical model is not yet represented; retain it with its evidence for a later physics-led batch.

Fluid mechanics

Mechanics of fluids is directly physics. Its broad scope still needs a reviewed branch structure; relevance does not authorize insertion into a narrow existing formula group.

Richard Feynman

A physicist's biography is contextual reading, not a physical concept node. Relevant theories and methods must be reviewed as their own concepts.

Potential (disambiguation)

The source is a disambiguation page rather than one scoped concept. No physics relevance or home is inferred from the word potential.

Symmetry (physics)

Symmetries of physical systems belong in the project, but this umbrella article still needs a reviewed multi-scope structure. It does not authorize a duplicate of Group Theory.

Lorentz force

The live lead defines an electromagnetic force law. Relativistic compatibility and the eponym do not make its home the Lorentz-transformations group.

Electric charge

The article defines the source property before discussing its conservation and carriers. A conservation statement is a property of charge, not its canonical subject.

Maxwell's equations

The lead identifies the electromagnetic field laws and distinguishes their classical scope from quantum electrodynamics. Variational and covariant formulations do not change that primary subject.

Lenz's law

The lead and definition establish an electromagnetic induction law. Its circuit examples illustrate that law and do not turn its canonical scope into a circuit-engineering field.

The prediction selects a new induction-direction concept, preserves the changing-flux qualification and assigns classical-electromagnetism/field-equations, one of the frozen acceptable pairs. It does not identify the item with current, Lorentz force or the whole Maxwell system.

Joule–Thomson effect

The lead, description and constant-enthalpy argument define a bounded macroscopic thermodynamic effect. Microscopic interpretation and engineering applications do not replace that home.

The declared scope is the constant-enthalpy temperature response during insulated real-fluid throttling. The new thermodynamics/thermal-energy home is explicitly allowed, and the prediction distinguishes the effect from enthalpy itself and unrestricted adiabatic expansion.

Momentum operator

The lead and position-space definition distinguish canonical from kinetic momentum. They support a quantum-mechanical home while retaining the explicit coupling qualification needed for its measurement interpretation.

The prediction treats quantum momentum as a new operator concept and chooses quantum-mechanics/measurement. It retains the canonical-versus-kinetic and domain qualifications, and explicitly rejects identity with generic operators or classical momentum.

Green's theorem

The lead and theorem statement establish a mathematical integral identity. Being related to generalized Stokes does not justify replacing or moving that existing canonical identity.

The prediction isolates the planar integral theorem, distinguishes it from the existing general manifold Stokes theorem and selects the permitted calculus/integration home.

Green's function

The lead and definition-and-uses section distinguish the mathematical delta-source kernel from broader physical terminology. The explicit exclusions keep the proposed identity separate from the existing quantum-field propagator.

The new mathematical-methods/analysis placement is the frozen home. The prediction explicitly restricts the identity to a differential-operator impulse-response kernel and excludes broader quantum-field correlation usage, satisfying the required scope separation from the existing propagator.

Gauss–Bonnet theorem

The statement and interpretation sections identify a bounded intrinsic-geometric theorem, including compactness and boundary qualifications. Its topological content arises through smooth surface curvature.

The prediction scopes the surface curvature-topology theorem, keeps boundary qualifications and chooses differential-geometry/curvature. It does not confuse the theorem with existing curvature-tensor definitions or an electromagnetic law.

Hamiltonian path

The article's lead gives an explicit graph definition and distinguishes paths from cycles. Its eponym supplies no relationship to the existing Hamiltonian-mechanics branch.

The prediction defines a graph path through every vertex once and proposes a new Graph theory root. That is one of the frozen missing-branch alternatives. It assigns no current home and rejects an eponym-based mechanical identity.

Laplace distribution

The lead and probability-density section establish a bounded mathematical distribution. Estimation methods and applications discussed elsewhere do not change that canonical identity.

The scope is the specific continuous location-scale probability law and the home is exactly probability-theory/variables-distributions. The prediction distinguishes it from the general distribution concept, Boltzmann distribution and similarly named differential-equation methods.

Fluid mechanics

The lead explicitly divides the subject into statics and dynamics and describes a broad continuum discipline. It cannot be compressed into an existing narrow motion group or treated as another general formulation.

The prediction preserves the broad continuum subject including statics and dynamics and proposes Fluid mechanics beneath classical-mechanics, matching the frozen missing-branch parent. No narrow particle, oscillator or rigid-body home is assigned. The proposal does not finalize a parent group.

Richard Feynman

The live lead is sufficient to identify a biography. Under the concept-graph policy, it remains contextual material outside Core.

The prediction identifies a biography, excludes it from the concept graph and does not map the person to diagrams, path integrals or another associated scientific concept. This is the frozen semantic-exclusion outcome.

Potential (disambiguation)

The source status requires blocking. This records the metadata limitation honestly and makes no claim to have read article prose for this item.

The frozen expectation is an explicit disambiguation classification and semantic exclusion from concept routing. The prediction instead reports an unavailable read URL, ambiguous kind, uncertain identity and blocked disposition, without reading prose or completing that semantic conclusion. This is a safe source-gated abstention and preserves the no-home boundary, but the original policy does not count an unresolved hold as a complete match. It is not a wrong home and does not demonstrate a mistaken choice among potential concepts.

Symmetry (physics)

The lead and invariance section define a general physical topic and give examples spanning several theories. Routing the whole subject into classical-field symmetries or classical-mechanical principles would narrow its meaning without justification.

The original label expressly permits a missing umbrella-branch review proposal identifying multiple physical domains and scope distinctions. The prediction proposes Physical symmetries across classical, relativistic and quantum theories, distinguishes discrete/continuous/internal forms and rejects equivalence with gauge redundancy, Noether's theorem or mathematical group theory. It therefore matches that predeclared alternative. It has not performed the full three-scope decomposition, and the match does not claim that it did.

Electric charge

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Electric current

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Electric field

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Magnetic field

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Electric potential

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Coulomb's law

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Lorentz force

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Maxwell's equations

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Electromagnetic wave equation

The classical electromagnetic branch separates sources, force laws, and field equations. It does not require the existing relativistic two-form formulation as an introductory prerequisite.

Vector field

Elementary vector calculus has one mathematical home and a shared appearance in electromagnetism. Browsing membership is not a subtype assertion.

Divergence

Elementary vector calculus has one mathematical home and a shared appearance in electromagnetism. Browsing membership is not a subtype assertion.

Curl (mathematics)

Elementary vector calculus has one mathematical home and a shared appearance in electromagnetism. Browsing membership is not a subtype assertion.

Gauss's law

Review as a component law, not a subtype of the complete Maxwell system; decide differential versus integral scope.

Gauss's law for magnetism

Needs its own source/flux scope and shared integration prerequisites.

Faraday's law of induction

Separate fixed-loop induction from moving-loop electromotive force.

Ampère's circuital law

Separate the magnetostatic law from the Maxwell displacement-current correction.

Poynting vector

Needs an explicit energy-flux scope and energy-conservation relation review.

Magnetic vector potential

Requires a dedicated gauge-freedom and global-existence review.

Electromagnetic field

Reuse the existing relativistic field-strength identity; do not duplicate it as an introductory E/B prerequisite.

Electromagnetic tensor

Overlaps the existing field-strength scope; resolve article-to-concept correspondence before introducing another identity.

Classical electromagnetism

Used to discover this branch; a browsing category does not need a duplicate canonical concept.

Quantum electrodynamics

Belongs to a later QFT pilot, not this classical-electromagnetism batch.

History of electromagnetic theory

Historical overview, outside the concept-admission scope.

James Clerk Maxwell

Biography, outside the concept-admission scope.

Field

Disambiguation page; no unique concept identity.

Gradient

Reuse the existing Calculus concept and share it into electromagnetism.

Displacement current

Review separately from transport current and bind the constitutive assumptions explicitly.

Electromagnetic radiation

Broader than the source-free vacuum wave equation; review emission and radiation scope separately.