Files
MeanField/libmeanfield/interface/normalization/physical_riesz.cppm
2026-09-06 10:15:00 -04:00

729 lines
32 KiB
C++

module;
#include <cmath>
#include <concepts>
#include <stdexcept>
#include <type_traits>
export module mean_field:normalization.physical_riesz;
export import :dimensions.quantities;
export import :field.mfem;
export import :model.specifications;
export import :normalization.plan;
export namespace mean_field::normalization {
struct Unnormalized final : NormalizationPrescriptionTag { };
struct ReferenceGeometry final { };
struct FixedMassBranchReference final { };
template <typename Candidate>
concept RieszGeometryPolicy = std::same_as<std::remove_cvref_t<Candidate>, ReferenceGeometry>;
template <typename Candidate>
concept ReferenceScalePolicy = std::same_as<std::remove_cvref_t<Candidate>, FixedMassBranchReference>;
template <
RieszGeometryPolicy GeometryPolicy = ReferenceGeometry,
ReferenceScalePolicy ScalePolicy = FixedMassBranchReference>
class PhysicalRieszDiagonal final : public NormalizationPrescriptionTag {
public:
using Geometry = GeometryPolicy;
using ScaleSource = ScalePolicy;
explicit PhysicalRieszDiagonal(
const dimensions::LengthValue referenceRadius,
const double gravitationalConstant = 1.0
)
: m_referenceRadius(referenceRadius),
m_gravitationalConstant(gravitationalConstant) {
if (!std::isfinite(referenceRadius.value()) || referenceRadius.value() <= 0.0) {
throw std::invalid_argument("Physical Riesz normalization requires a finite, positive branch radius.");
}
if (!std::isfinite(gravitationalConstant) || gravitationalConstant <= 0.0) {
throw std::invalid_argument(
"Physical Riesz normalization requires a finite, positive gravitational constant."
);
}
}
[[nodiscard]] dimensions::LengthValue referenceRadius() const noexcept {
return m_referenceRadius;
}
[[nodiscard]] double gravitationalConstant() const noexcept {
return m_gravitationalConstant;
}
private:
dimensions::LengthValue m_referenceRadius;
double m_gravitationalConstant;
};
PhysicalRieszDiagonal(dimensions::LengthValue, double = 1.0)
-> PhysicalRieszDiagonal<ReferenceGeometry, FixedMassBranchReference>;
template <typename Candidate> struct IsPhysicalRieszDiagonal : std::false_type { };
template <RieszGeometryPolicy Geometry, ReferenceScalePolicy ScaleSource>
struct IsPhysicalRieszDiagonal<PhysicalRieszDiagonal<Geometry, ScaleSource>> : std::true_type { };
template <typename Candidate>
concept PhysicalRieszDiagonalPrescription =
IsPhysicalRieszDiagonal<std::remove_cvref_t<Candidate>>::value;
struct StellarCharacteristicScales final {
dimensions::MassValue mass;
dimensions::LengthValue radius;
double gravitationalConstant;
double density;
double acceleration;
double inverseTimeSquared;
double specificEnergy;
double pressure;
double angularVelocity;
double angularMomentum;
double force;
};
[[nodiscard]] inline StellarCharacteristicScales deriveStellarCharacteristicScales(
const dimensions::MassValue mass,
const dimensions::LengthValue radius,
const double gravitationalConstant = 1.0
) {
const double massValue = mass.value();
const double radiusValue = radius.value();
if (!std::isfinite(massValue) || massValue <= 0.0) {
throw std::invalid_argument("Characteristic stellar scales require a finite, positive mass.");
}
if (!std::isfinite(radiusValue) || radiusValue <= 0.0) {
throw std::invalid_argument("Characteristic stellar scales require a finite, positive radius.");
}
if (!std::isfinite(gravitationalConstant) || gravitationalConstant <= 0.0) {
throw std::invalid_argument(
"Characteristic stellar scales require a finite, positive gravitational constant."
);
}
const double radiusSquared = radiusValue * radiusValue;
const double radiusCubed = radiusSquared * radiusValue;
const double density = massValue / radiusCubed;
const double acceleration = gravitationalConstant * massValue / radiusSquared;
const double inverseTimeSquared = gravitationalConstant * massValue / radiusCubed;
const double specificEnergy = gravitationalConstant * massValue / radiusValue;
const double pressure = gravitationalConstant * massValue * massValue /
(radiusSquared * radiusSquared);
const double angularVelocity = std::sqrt(inverseTimeSquared);
const double angularMomentum = massValue * std::sqrt(gravitationalConstant * massValue * radiusValue);
const double force = gravitationalConstant * massValue * massValue / radiusSquared;
const double derived[] = {
density,
acceleration,
inverseTimeSquared,
specificEnergy,
pressure,
angularVelocity,
angularMomentum,
force
};
for (const double value : derived) {
if (!std::isfinite(value) || value <= 0.0) {
throw std::overflow_error("A derived characteristic stellar scale is not finite and positive.");
}
}
return {
.mass = mass,
.radius = radius,
.gravitationalConstant = gravitationalConstant,
.density = density,
.acceleration = acceleration,
.inverseTimeSquared = inverseTimeSquared,
.specificEnergy = specificEnergy,
.pressure = pressure,
.angularVelocity = angularVelocity,
.angularMomentum = angularMomentum,
.force = force
};
}
template <RieszGeometryPolicy Geometry, ReferenceScalePolicy ScaleSource, typename Model>
requires requires(const Model &model) {
{
model.template specification<models::FixedTotalMass>()
} -> std::same_as<const models::FixedTotalMass &>;
{
model.template specification<models::FixedTotalMass>().targetMass()
} -> std::same_as<dimensions::MassValue>;
}
[[nodiscard]] StellarCharacteristicScales deriveStellarCharacteristicScales(
const PhysicalRieszDiagonal<Geometry, ScaleSource> &prescription,
const Model &model
) {
return deriveStellarCharacteristicScales(
model.template specification<models::FixedTotalMass>().targetMass(),
prescription.referenceRadius(),
prescription.gravitationalConstant()
);
}
namespace detail {
/*
* Model definitions live below the numerical normalization layer so
* that a physics component can describe its generated coordinates
* without importing solver machinery. These two translations are the
* deliberately small boundary between that neutral declaration and the
* normalization plan used by the discretization.
*/
template <models::RieszTopology Topology> struct DeclaredRieszTopology {
static constexpr bool available = false;
static constexpr RieszTopology value = RieszTopology::identity;
};
#define MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(Name) \
template <> struct DeclaredRieszTopology<models::RieszTopology::Name> { \
static constexpr bool available = true; \
static constexpr RieszTopology value = RieszTopology::Name; \
}
MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(identity);
MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(scalar_volume_l2);
MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(vector_volume_l2);
MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(scalar_boundary_l2);
MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(hybrid_scalar_volume_point_rows);
MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY(global_scalar);
#undef MEAN_FIELD_DECLARED_RIESZ_TOPOLOGY
template <models::PhysicalScaleLaw Scale> struct DeclaredPhysicalScale {
static constexpr bool available = false;
static constexpr PhysicalScaleKind value = PhysicalScaleKind::dimensionless;
};
#define MEAN_FIELD_DECLARED_PHYSICAL_SCALE(Name) \
template <> struct DeclaredPhysicalScale<models::PhysicalScaleLaw::Name> { \
static constexpr bool available = true; \
static constexpr PhysicalScaleKind value = PhysicalScaleKind::Name; \
}
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(dimensionless);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(density);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(length);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(acceleration);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(inverse_time_squared);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(specific_energy);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(pressure);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(mass);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(force);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(angular_velocity);
MEAN_FIELD_DECLARED_PHYSICAL_SCALE(angular_momentum);
#undef MEAN_FIELD_DECLARED_PHYSICAL_SCALE
template <typename Declaration, typename = void>
struct CompileDeclaredPhysicalRieszCoordinate {
using Method = UnsupportedPhysicalRieszCoordinate;
static constexpr bool registered = false;
};
template <typename Declaration>
struct CompileDeclaredPhysicalRieszCoordinate<
Declaration,
std::void_t<
decltype(std::integral_constant<
models::RieszTopology,
static_cast<models::RieszTopology>(Declaration::topology)>{}),
decltype(std::integral_constant<
models::PhysicalScaleLaw,
static_cast<models::PhysicalScaleLaw>(Declaration::scale)>{}),
decltype(std::bool_constant<static_cast<bool>(Declaration::available)>{})>> {
private:
static constexpr models::RieszTopology declaredTopology =
static_cast<models::RieszTopology>(Declaration::topology);
static constexpr models::PhysicalScaleLaw declaredScale =
static_cast<models::PhysicalScaleLaw>(Declaration::scale);
using Topology = DeclaredRieszTopology<declaredTopology>;
using Scale = DeclaredPhysicalScale<declaredScale>;
public:
static constexpr bool registered = static_cast<bool>(Declaration::available) &&
Topology::available && Scale::available;
using Method = std::conditional_t<
registered,
PhysicalRieszCoordinate<Topology::value, Scale::value>,
UnsupportedPhysicalRieszCoordinate>;
};
template <typename Generated, CoordinateKind Kind, typename = void>
struct DeclaredGeneratedPhysicalRieszCoordinate {
using Method = UnsupportedPhysicalRieszCoordinate;
static constexpr bool registered = false;
};
template <typename Generated>
struct DeclaredGeneratedPhysicalRieszCoordinate<
Generated,
CoordinateKind::value,
std::void_t<
typename Generated::SpecificationType,
typename models::SpecificationContribution<
typename Generated::SpecificationType>::Normalization::Value>>
: CompileDeclaredPhysicalRieszCoordinate<
typename models::SpecificationContribution<
typename Generated::SpecificationType>::Normalization::Value> { };
template <typename Generated>
struct DeclaredGeneratedPhysicalRieszCoordinate<
Generated,
CoordinateKind::residual,
std::void_t<
typename Generated::SpecificationType,
typename models::SpecificationContribution<
typename Generated::SpecificationType>::Normalization::Residual>>
: CompileDeclaredPhysicalRieszCoordinate<
typename models::SpecificationContribution<
typename Generated::SpecificationType>::Normalization::Residual> { };
template <typename GeneratedValues, typename GeneratedResiduals>
struct GeneratedPhysicalRieszCoverage {
static constexpr bool complete = false;
};
template <typename... GeneratedValues, typename... GeneratedResiduals>
struct GeneratedPhysicalRieszCoverage<
models::ModelTypeList<GeneratedValues...>,
models::ModelTypeList<GeneratedResiduals...>> {
static constexpr bool complete =
(DeclaredGeneratedPhysicalRieszCoordinate<
GeneratedValues,
CoordinateKind::value>::registered && ...) &&
(DeclaredGeneratedPhysicalRieszCoordinate<
GeneratedResiduals,
CoordinateKind::residual>::registered && ...);
};
template <typename Specification, typename = void>
struct SpecificationPhysicalRieszCoverage {
static constexpr bool complete = false;
};
template <models::ModelSpecification Specification>
struct SpecificationPhysicalRieszCoverage<
Specification,
std::void_t<
typename models::SpecificationContribution<Specification>::GeneratedValues,
typename models::SpecificationContribution<Specification>::GeneratedResiduals>>
: GeneratedPhysicalRieszCoverage<
typename models::SpecificationContribution<Specification>::GeneratedValues,
typename models::SpecificationContribution<Specification>::GeneratedResiduals> { };
} // namespace detail
/*
* All generated blocks are normalized from their generating physics
* specification. Adding another constraint therefore does not add a
* normalization specialization: its public ModelDefinition is the single
* source of both the value and residual Riesz laws.
*/
template <typename Generated>
struct PhysicalRieszBlockTraits<utils::blocks::generated_value_block<Generated>>
: detail::DeclaredGeneratedPhysicalRieszCoordinate<Generated, CoordinateKind::value> { };
template <typename Generated>
struct PhysicalRieszBlockTraits<utils::blocks::generated_residual_block<Generated>>
: detail::DeclaredGeneratedPhysicalRieszCoordinate<Generated, CoordinateKind::residual> { };
template <typename Generated>
concept GeneratedValuePhysicalRieszNormalizable =
detail::DeclaredGeneratedPhysicalRieszCoordinate<Generated, CoordinateKind::value>::registered;
template <typename Generated>
concept GeneratedResidualPhysicalRieszNormalizable =
detail::DeclaredGeneratedPhysicalRieszCoordinate<Generated, CoordinateKind::residual>::registered;
template <typename Specification>
concept CompleteGeneratedPhysicalRieszNormalizationFor =
detail::SpecificationPhysicalRieszCoverage<std::remove_cvref_t<Specification>>::complete;
/*
* Runtime Physical Riesz assembly needs more than a symbolically complete
* plan: it must be able to recover the finite-element maps owned by the
* selected physical core. Keep that structural capability in this low
* normalization module so both problem formation and the solver-facing
* adapter can consult the same authority without importing one another.
*/
template <typename Candidate>
concept PhysicalRieszCoreRuntime =
requires(const std::remove_cvref_t<Candidate> &core) {
{
core.GetGravityContext().GetDensityMap()
} -> std::same_as<const field::FieldDofMap &>;
{
core.GetGravityContext().GetGravityGradientMap()
} -> std::same_as<const field::FieldDofMap &>;
{
core.GetGravityContext().GetGravityPotentialMap()
} -> std::same_as<const field::FieldDofMap &>;
{
core.GetHydrostaticOperator().GetEnthalpyMap()
} -> std::same_as<const field::FieldDofMap &>;
{
core.GetDomainDeformation().parameterCount()
} -> std::same_as<int>;
};
namespace detail {
template <typename Generated, CoordinateKind Kind>
using GeneratedPhysicalRieszMethod =
typename DeclaredGeneratedPhysicalRieszCoordinate<Generated, Kind>::Method;
template <typename Generated, CoordinateKind Kind, typename = void>
struct GeneratedPhysicalRieszRuntimeCoordinate : std::false_type { };
template <typename Generated, CoordinateKind Kind>
struct GeneratedPhysicalRieszRuntimeCoordinate<
Generated,
Kind,
std::void_t<decltype(GeneratedPhysicalRieszMethod<Generated, Kind>::topology)>>
: std::bool_constant<
DeclaredGeneratedPhysicalRieszCoordinate<Generated, Kind>::registered &&
GeneratedPhysicalRieszMethod<Generated, Kind>::topology ==
RieszTopology::global_scalar> { };
template <typename Specification, typename = void>
struct SpecificationPhysicalRieszRuntimeCoverage : std::false_type { };
template <typename Values, typename Residuals>
struct GeneratedPhysicalRieszRuntimeCoverage : std::false_type { };
template <typename... Values, typename... Residuals>
struct GeneratedPhysicalRieszRuntimeCoverage<
models::ModelTypeList<Values...>,
models::ModelTypeList<Residuals...>>
: std::bool_constant<
(GeneratedPhysicalRieszRuntimeCoordinate<Values, CoordinateKind::value>::value && ...) &&
(GeneratedPhysicalRieszRuntimeCoordinate<Residuals, CoordinateKind::residual>::value && ...)> { };
template <models::ModelSpecification Specification>
struct SpecificationPhysicalRieszRuntimeCoverage<
Specification,
std::void_t<
typename models::SpecificationContribution<Specification>::GeneratedValues,
typename models::SpecificationContribution<Specification>::GeneratedResiduals>>
: GeneratedPhysicalRieszRuntimeCoverage<
typename models::SpecificationContribution<Specification>::GeneratedValues,
typename models::SpecificationContribution<Specification>::GeneratedResiduals> { };
template <typename SpecificationTypes>
struct SpecificationSetPhysicalRieszRuntimeCoverage : std::false_type { };
template <models::ModelSpecification... Specifications>
struct SpecificationSetPhysicalRieszRuntimeCoverage<
models::detail::SpecificationSetStorage<Specifications...>>
: std::bool_constant<
(SpecificationPhysicalRieszRuntimeCoverage<Specifications>::value && ...)> { };
} // namespace detail
template <typename Specification>
concept CompleteGeneratedPhysicalRieszRuntimeNormalizationFor =
detail::SpecificationPhysicalRieszRuntimeCoverage<
std::remove_cvref_t<Specification>>::value;
#define MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(BlockType, TopologyValue, ScaleValue) \
template <> struct PhysicalRieszBlockTraits<BlockType> { \
using Method = PhysicalRieszCoordinate<RieszTopology::TopologyValue, PhysicalScaleKind::ScaleValue>; \
static constexpr bool registered = true; \
}
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::density::mass::value,
scalar_volume_l2,
density
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::surface_deformation::parameters::value,
scalar_boundary_l2,
length
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::gravity::gradient::value,
vector_volume_l2,
acceleration
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::gravity::poisson::value,
scalar_volume_l2,
specific_energy
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::enthalpy::specific::value,
scalar_volume_l2,
specific_energy
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::gravity::gradient::residual,
vector_volume_l2,
acceleration
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::gravity::poisson::residual,
scalar_volume_l2,
inverse_time_squared
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::density::mass::residual,
scalar_volume_l2,
density
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::surface_deformation::shape_equilibrium::residual,
scalar_boundary_l2,
force
);
MEAN_FIELD_PHYSICAL_RIESZ_TRAIT(
utils::blocks::enthalpy::specific::residual,
hybrid_scalar_volume_point_rows,
specific_energy
);
#undef MEAN_FIELD_PHYSICAL_RIESZ_TRAIT
template <typename Block>
[[nodiscard]] double physicalScale(
const StellarCharacteristicScales &scales
) {
static_assert(PhysicalRieszBlockTraits<Block>::registered, "The block has no Physical Riesz normalization.");
using Method = typename PhysicalRieszBlockTraits<Block>::Method;
constexpr PhysicalScaleKind scale = Method::scale;
if constexpr (scale == PhysicalScaleKind::dimensionless) {
return 1.0;
} else if constexpr (scale == PhysicalScaleKind::density) {
return scales.density;
} else if constexpr (scale == PhysicalScaleKind::length) {
return scales.radius.value();
} else if constexpr (scale == PhysicalScaleKind::acceleration) {
return scales.acceleration;
} else if constexpr (scale == PhysicalScaleKind::inverse_time_squared) {
return scales.inverseTimeSquared;
} else if constexpr (scale == PhysicalScaleKind::specific_energy) {
return scales.specificEnergy;
} else if constexpr (scale == PhysicalScaleKind::pressure) {
return scales.pressure;
} else if constexpr (scale == PhysicalScaleKind::mass) {
return scales.mass.value();
} else if constexpr (scale == PhysicalScaleKind::force) {
return scales.force;
} else if constexpr (scale == PhysicalScaleKind::angular_velocity) {
return scales.angularVelocity;
} else {
static_assert(scale == PhysicalScaleKind::angular_momentum);
return scales.angularMomentum;
}
}
namespace detail {
template <typename Values, typename Residuals> struct MakePhysicalRieszPlan;
template <typename... Values, typename... Residuals>
struct MakePhysicalRieszPlan<
utils::blocks::type_list<Values...>,
utils::blocks::type_list<Residuals...>> {
using Type = NormalizationPlan<
CoordinateComponent<
CoordinateKind::value,
utils::blocks::type_list<Values>,
typename PhysicalRieszBlockTraits<Values>::Method>...,
CoordinateComponent<
CoordinateKind::residual,
utils::blocks::type_list<Residuals>,
typename PhysicalRieszBlockTraits<Residuals>::Method>...>;
};
} // namespace detail
template <typename Form>
requires utils::blocks::block_form_is_valid_v<Form>
using PhysicalRieszNormalizationPlanFor = typename detail::MakePhysicalRieszPlan<
typename Form::value_blocks,
typename Form::residual_blocks>::Type;
/*
* Public compile-time extension point for a normalization prescription.
* A specialization owns both the complete coordinate plan and the
* low-level runtime compatibility predicate used before a discretized
* problem type is formed. Keeping those declarations together prevents a
* policy from compiling a plan which the selected stellar core cannot
* actually prepare.
*/
template <typename Prescription, typename Form> struct NormalizationCompilation {
using Plan = NormalizationPlan<>;
static constexpr bool registered = false;
template <typename PhysicalCore, typename SpecificationTypes>
static constexpr bool runtimeAvailableFor = false;
};
/* Astronomy/numerics-facing package for a policy which prepares one
* runtime diagonal over the complete inferred form and needs no private
* facility of a particular stellar core. The generated plan truthfully
* labels every coordinate as runtime-prepared by this exact policy. */
template <NormalizationPrescription Prescription, typename Form>
requires utils::blocks::block_form_is_valid_v<Form>
struct RuntimePreparedNormalizationCompilation {
using Plan = RuntimePreparedNormalizationPlanFor<Prescription, Form>;
static constexpr bool registered = CompleteNormalizationFor<Plan, Form>;
template <typename PhysicalCore, typename SpecificationTypes>
static constexpr bool runtimeAvailableFor = registered;
};
template <typename Form>
requires utils::blocks::block_form_is_valid_v<Form>
struct NormalizationCompilation<Unnormalized, Form> {
using Plan = IdentityNormalizationPlanFor<Form>;
static constexpr bool registered = CompleteNormalizationFor<Plan, Form>;
template <typename PhysicalCore, typename SpecificationTypes>
static constexpr bool runtimeAvailableFor = registered;
};
template <RieszGeometryPolicy Geometry, ReferenceScalePolicy ScaleSource, typename Form>
requires utils::blocks::block_form_is_valid_v<Form>
struct NormalizationCompilation<PhysicalRieszDiagonal<Geometry, ScaleSource>, Form> {
using Plan = PhysicalRieszNormalizationPlanFor<Form>;
static constexpr bool registered = CompleteNormalizationFor<Plan, Form>;
template <typename PhysicalCore, typename SpecificationTypes>
static constexpr bool runtimeAvailableFor =
registered &&
PhysicalRieszCoreRuntime<std::remove_cvref_t<PhysicalCore>> &&
detail::SpecificationSetPhysicalRieszRuntimeCoverage<
std::remove_cvref_t<SpecificationTypes>>::value;
};
namespace detail {
template <typename Prescription, typename Form, typename = void>
struct NormalizationCompilationAudit {
using Plan = NormalizationPlan<>;
static constexpr bool registered = false;
};
template <typename Prescription, typename Form>
requires NormalizationPrescription<std::remove_cvref_t<Prescription>> &&
utils::blocks::block_form_is_valid_v<std::remove_cvref_t<Form>>
struct NormalizationCompilationAudit<
Prescription,
Form,
std::void_t<
typename NormalizationCompilation<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>>::Plan,
decltype(std::bool_constant<static_cast<bool>(
NormalizationCompilation<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>>::registered)>{})>> {
using Compilation = NormalizationCompilation<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>>;
using Plan = typename Compilation::Plan;
static constexpr bool registered =
static_cast<bool>(Compilation::registered) &&
CompleteNormalizationFor<Plan, std::remove_cvref_t<Form>>;
};
} // namespace detail
template <NormalizationPrescription Prescription, typename Form>
using NormalizationPlanFor = typename detail::NormalizationCompilationAudit<
std::remove_cvref_t<Prescription>,
Form>::Plan;
template <typename Prescription, typename Form>
concept CompilableNormalizationFor =
detail::NormalizationCompilationAudit<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>>::registered;
/* The public runtime-preparation adapter is intentionally narrower than
* an arbitrary complete plan: every coordinate must name the exact policy
* which supplies its runtime factor. This prevents a custom policy from
* advertising IdentityCoordinate (or another policy's method) while
* silently installing a different diagonal at runtime. */
template <typename Prescription, typename Form>
concept RuntimePreparedNormalizationFor =
NormalizationPrescription<std::remove_cvref_t<Prescription>> &&
utils::blocks::block_form_is_valid_v<std::remove_cvref_t<Form>> &&
CompilableNormalizationFor<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>> &&
std::same_as<
NormalizationPlanFor<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>>,
RuntimePreparedNormalizationPlanFor<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>>>;
namespace detail {
template <
typename Prescription,
typename Form,
typename PhysicalCore,
typename SpecificationTypes,
typename = void>
struct StellarNormalizationRuntimeAudit : std::false_type { };
template <
typename Prescription,
typename Form,
typename PhysicalCore,
typename SpecificationTypes>
struct StellarNormalizationRuntimeAudit<
Prescription,
Form,
PhysicalCore,
SpecificationTypes,
std::void_t<
std::enable_if_t<NormalizationCompilationAudit<
Prescription,
Form>::registered>,
decltype(std::bool_constant<static_cast<bool>(
NormalizationCompilation<
Prescription,
Form>::template runtimeAvailableFor<
PhysicalCore,
SpecificationTypes>)>{})>>
: std::bool_constant<
(std::same_as<Prescription, Unnormalized> ||
PhysicalRieszDiagonalPrescription<Prescription> ||
RuntimePreparedNormalizationFor<Prescription, Form>) &&
static_cast<bool>(NormalizationCompilation<
Prescription,
Form>::template runtimeAvailableFor<
PhysicalCore,
SpecificationTypes>)> { };
} // namespace detail
/*
* Single detection-safe authority for pairing a compiled stellar form,
* its selected physical core, and a runtime normalization prescription.
* Each public NormalizationCompilation specialization declares this
* compatibility alongside its plan. The identity policy needs only a
* complete plan. Physical Riesz also requires every map consumed during
* assembly and global-scalar runtime preparation for every generated
* coordinate in the specification pack.
*/
template <
typename Prescription,
typename Form,
typename PhysicalCore,
typename SpecificationTypes>
concept StellarNormalizationRuntimeAvailableFor =
detail::StellarNormalizationRuntimeAudit<
std::remove_cvref_t<Prescription>,
std::remove_cvref_t<Form>,
std::remove_cvref_t<PhysicalCore>,
std::remove_cvref_t<SpecificationTypes>>::value;
} // namespace mean_field::normalization