Mesh.hpp

Go to the documentation of this file.

#pragma once
 
#include <Eigen/Core>
 
#include <initializer_list>
 
#include <memory>
#include <tuple>
// just includes function prorotypes to befriend
//#include <wmtk/multimesh/utils/extract_child_mesh_from_tag.hpp>
 
 
// need to return this header
#include "attribute/Accessor.hpp"
 
// is a member of the Mesh class
#include "multimesh/MultiMeshManager.hpp"
 
// basic data for the class
#include <wmtk/simplex/Simplex.hpp>
#include "Tuple.hpp"
#include "Types.hpp"
#include "attribute/AttributeManager.hpp"
#include "attribute/AttributeScopeHandle.hpp"
#include "attribute/FlagAccessor.hpp"
#include "attribute/MeshAttributeHandle.hpp"
#include "multimesh/attribute/AttributeScopeHandle.hpp"
 
#include "multimesh/attribute/UseParentScopeRAII.hpp"
 
#include "simplex/IdSimplex.hpp"
#include "simplex/NavigatableSimplex.hpp"
#include "simplex/Simplex.hpp"
#include "wmtk/attribute/CachingAttribute.hpp"
 
 
// if we have concepts then switch_tuples uses forward_iterator concept
#if defined(__cpp_concepts) && defined(__cpp_lib_ranges)
#include <ranges>
#endif
 
 
namespace wmtk {
namespace tests {
class DEBUG_Mesh;
} // namespace tests
// thread management tool that we will PImpl
namespace attribute {
class AttributeManager;
template <typename T, typename MeshType, typename AttributeType, int Dim>
class Accessor;
 
} // namespace attribute
namespace operations {
class Operation;
class EdgeCollapse;
class EdgeSplit;
class EdgeOperationData;
namespace internal {
class CollapseAlternateFacetData;
}
namespace utils {
class UpdateEdgeOperationMultiMeshMapFunctor;
}
} // namespace operations
 
namespace io {
class ParaviewWriter;
}
namespace multimesh {
template <int64_t cell_dimension, typename NodeFunctor>
class MultiMeshSimplexVisitor;
template <typename NodeFunctor>
class MultiMeshVisitor;
template <typename Visitor>
class MultiMeshSimplexVisitorExecutor;
template <typename Visitor>
class MultiMeshVisitorExecutor;
 
namespace utils {
class MapValidator;
namespace internal {
class TupleTag;
}
} // namespace utils
} // namespace multimesh
 
 
// NOTE: the implementation of this class is split into several files to improve clang-format
// performance
// * Mesh.cpp
// * Mesh_attributes.cpp
// * Mesh_construction.cpp
class Mesh : public std::enable_shared_from_this<Mesh>, public wmtk::utils::MerkleTreeInteriorNode
{
public:
    friend class tests::DEBUG_Mesh;
    template <typename T, typename MeshType, typename AttributeType, int Dim>
    friend class attribute::Accessor;
    friend class io::ParaviewWriter;
    friend class HDF5Reader;
    friend class multimesh::attribute::UseParentScopeRAII;
    friend class multimesh::MultiMeshManager;
    friend class attribute::AttributeManager;
    template <int64_t cell_dimension, typename NodeFunctor>
    friend class multimesh::MultiMeshSimplexVisitor;
    template <typename Visitor>
    friend class multimesh::MultiMeshSimplexVisitorExecutor;
    template <typename NodeFunctor>
    friend class multimesh::MultiMeshVisitor;
    friend class multimesh::utils::MapValidator;
    template <typename Visitor>
    friend class multimesh::MultiMeshVisitorExecutor;
    friend class multimesh::attribute::AttributeScopeHandle;
    friend class multimesh::utils::internal::TupleTag;
    friend class operations::utils::UpdateEdgeOperationMultiMeshMapFunctor;
    friend class operations::Operation;
    friend class operations::EdgeCollapse;
    friend class operations::EdgeSplit;
    friend class operations::EdgeOperationData;
    friend class operations::internal::CollapseAlternateFacetData;
 
 
    int64_t top_cell_dimension() const;
    PrimitiveType top_simplex_type() const;
    bool is_free() const;
 
    // attribute directly hashes its "children" components so it overrides "child_hashes"
    std::map<std::string, const wmtk::utils::Hashable*> child_hashables() const override;
    std::map<std::string, std::size_t> child_hashes() const override;
 
    // dimension is the dimension of the top level simplex in this mesh
    // That is, a TriMesh is a 2, a TetMesh is a 3
    Mesh(const int64_t& dimension);
    // maximum primitive type id for supported attribute primitive locations
    Mesh(const int64_t& dimension, const int64_t& max_primitive_type_id);
    Mesh(Mesh&& other);
    Mesh(const Mesh& other) = delete;
    Mesh& operator=(const Mesh& other) = delete;
    Mesh& operator=(Mesh&& other);
    virtual ~Mesh();
 
    void serialize(MeshWriter& writer, const Mesh* local_root = nullptr) const;
 
    std::vector<Tuple> get_all(PrimitiveType type) const;
 
    std::vector<simplex::IdSimplex> get_all_id_simplex(PrimitiveType type) const;
    simplex::IdSimplex get_id_simplex(const Tuple& tuple, PrimitiveType pt) const;
 
    simplex::IdSimplex get_id_simplex(const simplex::Simplex& s) const;
 
    simplex::Simplex get_simplex(const simplex::IdSimplex& s) const;
 
    Tuple get_tuple_from_id_simplex(const simplex::IdSimplex& s) const;
 
    virtual std::tuple<std::vector<std::vector<int64_t>>, std::vector<std::vector<int64_t>>>
    consolidate();
 
    virtual std::vector<std::vector<TypedAttributeHandle<int64_t>>> connectivity_attributes()
        const = 0;
 
 
    std::vector<attribute::MeshAttributeHandle::HandleVariant> builtin_attributes() const;
    std::vector<attribute::MeshAttributeHandle::HandleVariant> custom_attributes() const;
 
 
    /* @brief registers an attribute without assuming the mesh exists */
    template <typename T>
    [[nodiscard]] attribute::MeshAttributeHandle register_attribute(
        const std::string& name,
        PrimitiveType type,
        int64_t size,
        bool replace = false,
        T default_value = T(0));
 
    /* @brief registers an attribute without assuming the mesh exists, returns a typed attribute */
    template <typename T>
    [[nodiscard]] attribute::TypedAttributeHandle<T> register_attribute_typed(
        const std::string& name,
        PrimitiveType type,
        int64_t size,
        bool replace = false,
        T default_value = T(0));
 
 
public:
    template <typename T>
    bool has_attribute(
        const std::string& name,
        const PrimitiveType ptype) const; // block standard topology tools
 
    template <typename T>
    attribute::MeshAttributeHandle get_attribute_handle(
        const std::string& name,
        const PrimitiveType ptype) const; // block standard topology tools
 
    template <typename T>
    attribute::TypedAttributeHandle<T> get_attribute_handle_typed(
        const std::string& name,
        const PrimitiveType ptype) const; // block standard topology tools
 
 
    template <typename T, int D = Eigen::Dynamic>
    attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D> create_accessor(const attribute::MeshAttributeHandle& handle);
 
 
    template <typename T, int D = Eigen::Dynamic>
    const attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D> create_const_accessor(
        const attribute::MeshAttributeHandle& handle) const;
 
    template <typename T, int D = Eigen::Dynamic>
    attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D> create_accessor(const TypedAttributeHandle<T>& handle);
 
    template <typename T, int D = Eigen::Dynamic>
    const attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D> create_const_accessor(
        const TypedAttributeHandle<T>& handle) const;
 
    template <typename T>
    int64_t get_attribute_dimension(const TypedAttributeHandle<T>& handle) const;
 
    template <typename T>
    const T& get_attribute_default_value(const TypedAttributeHandle<T>& handle) const;
 
    template <typename T>
    std::string get_attribute_name(const TypedAttributeHandle<T>& handle) const;
 
    std::string get_attribute_name(
        const attribute::MeshAttributeHandle::HandleVariant& handle) const;
 
    void clear_attributes(
        const std::vector<attribute::MeshAttributeHandle::HandleVariant>& keep_attributes);
    void clear_attributes();
    void clear_attributes(const std::vector<attribute::MeshAttributeHandle>& keep_attributes);
    void delete_attribute(const attribute::MeshAttributeHandle& to_delete);
    void delete_attribute(const attribute::MeshAttributeHandle::HandleVariant& to_delete);
 
 
    // creates a scope as int64_t as the AttributeScopeHandle exists
    [[nodiscard]] multimesh::attribute::AttributeScopeHandle create_scope();
 
 
    template <typename Functor, typename... Args>
    decltype(auto) parent_scope(Functor&& f, Args&&... args) const;
 
 
    const attribute::FlagAccessor<Mesh> get_flag_accessor(PrimitiveType type) const;
    const attribute::FlagAccessor<Mesh> get_const_flag_accessor(PrimitiveType type) const;
 
 
    bool operator==(const Mesh& other) const;
 
    void assert_capacity_valid() const;
    virtual bool is_connectivity_valid() const = 0;
 
    virtual std::vector<Tuple> orient_vertices(const Tuple& t) const = 0;
 
protected: // member functions
    attribute::FlagAccessor<> get_flag_accessor(PrimitiveType type);
 
 
protected:
    virtual Tuple tuple_from_id(const PrimitiveType type, const int64_t gid) const = 0;
    simplex::NavigatableSimplex simplex_from_id(const PrimitiveType type, const int64_t gid) const;
    std::vector<std::vector<int64_t>> simplices_to_gids(
        const std::vector<std::vector<simplex::Simplex>>& simplices) const;
    void reserve_attributes_to_fit();
    void reserve_attributes(PrimitiveType type, int64_t size);
    void reserve_attributes(int64_t dimension, int64_t size);
 
 
    // specifies the number of simplices of each type and resizes attributes appropritely
    void set_capacities(std::vector<int64_t> capacities);
 
    // reserves extra attributes than necessary right now
    void reserve_more_attributes(PrimitiveType type, int64_t size);
    // reserves extra attributes than necessary right now, does not pay attention
    void reserve_more_attributes(const std::vector<int64_t>& sizes);
 
    // makes sure that there are at least `size` simples of type `type` avialable
    void guarantee_more_attributes(PrimitiveType type, int64_t size);
    // makes sure that there are at least `size` simplices avialable at every dimension
    void guarantee_more_attributes(const std::vector<int64_t>& sizes);
 
    // makes sure that there are at least `size` simples of type `type` avialable
    void guarantee_at_least_attributes(PrimitiveType type, int64_t size);
    // makes sure that there are at least `size` simplices avialable at every dimension
    void guarantee_at_least_attributes(const std::vector<int64_t>& sizes);
 
    // provides new simplices - should ONLY be called in our atomic topological operations
    // all returned simplices are active (i.e their flags say they exist)
    [[nodiscard]] std::vector<int64_t> request_simplex_indices(PrimitiveType type, int64_t count);
 
public:
    virtual Tuple switch_tuple(const Tuple& tuple, PrimitiveType type) const = 0;
 
    // NOTE: adding per-simplex utility functions here is _wrong_ and will be removed
 
 
    // Performs a sequence of switch_tuple operations in the order specified in op_sequence.
    // in debug mode this will assert a failure, in release this will return a null tuple
#if defined(__cpp_concepts) && defined(__cpp_lib_ranges)
    template <std::ranges::forward_range ContainerType>
#else
    template <typename ContainerType>
#endif
    Tuple switch_tuples(const Tuple& tuple, const ContainerType& op_sequence) const;
    // annoying initializer list prototype to catch switch_tuples(t, {PV,PE})
    Tuple switch_tuples(const Tuple& tuple, const std::initializer_list<PrimitiveType>& op_sequence)
        const;
 
    // Performs a sequence of switch_tuple operations in the order specified in op_sequence.
#if defined(__cpp_concepts) && defined(__cpp_lib_ranges)
    template <std::ranges::forward_range ContainerType>
#else
    template <typename ContainerType>
#endif
    Tuple switch_tuples_unsafe(const Tuple& tuple, const ContainerType& op_sequence) const;
    // annoying initializer list prototype to catch switch_tuples(t, {PV,PE})
    Tuple switch_tuples_unsafe(
        const Tuple& tuple,
        const std::initializer_list<PrimitiveType>& op_sequence) const;
 
    void set_capacities_from_flags();
    int64_t capacity(PrimitiveType type) const;
 
    virtual bool is_ccw(const Tuple& tuple) const = 0;
 
    bool is_boundary(const simplex::Simplex& tuple) const;
    virtual bool is_boundary(PrimitiveType, const Tuple& tuple) const = 0;
 
 
    bool is_hash_valid(const Tuple& tuple, const attribute::Accessor<int64_t>& hash_accessor) const;
    bool is_hash_valid(const Tuple& tuple) const;
 
    virtual bool is_valid(const Tuple& tuple) const;
 
    // whether the tuple refers to a removed / invalid dart in the mesh
    bool is_removed(const Tuple& tuple) const;
    // whether the tuple refers to a removed / invalid simplex in the mesh
    bool is_removed(const Tuple& tuple, PrimitiveType pt) const;
 
protected:
    // whether the tuple refers to a removed / invalid facet
    bool is_removed(int64_t index) const;
    // whether the tuple refers to a removed / invalid simplex
    bool is_removed(int64_t index, PrimitiveType pt) const;
 
public:
    bool is_valid(const simplex::Simplex& s) const;
 
    bool validate_attributes() const;
 
    template <typename T>
    bool validate_handle(const TypedAttributeHandle<T>& handle) const;
 
    //============================
    // MultiMesh interface
    //============================
    //
    bool is_multi_mesh_root() const;
    Mesh& get_multi_mesh_root();
    const Mesh& get_multi_mesh_root() const;
 
    Mesh& get_multi_mesh_mesh(const std::vector<int64_t>& absolute_id);
    const Mesh& get_multi_mesh_mesh(const std::vector<int64_t>& absolute_id) const;
 
 
    Mesh& get_multi_mesh_child_mesh(const std::vector<int64_t>& relative_id);
    const Mesh& get_multi_mesh_child_mesh(const std::vector<int64_t>& relative_id) const;
 
    std::vector<std::shared_ptr<Mesh>> get_child_meshes() const;
 
    std::vector<std::shared_ptr<Mesh>> get_all_child_meshes() const;
 
    std::vector<std::shared_ptr<const Mesh>> get_all_meshes() const;
 
 
    std::vector<int64_t> absolute_multi_mesh_id() const;
 
 
    void register_child_mesh(
        const std::shared_ptr<Mesh>& child_mesh_ptr,
        const std::vector<std::array<Tuple, 2>>& map_tuples);
 
    void deregister_child_mesh(const std::shared_ptr<Mesh>& child_mesh_ptr);
 
 
private:
    void update_child_handles();
 
public:
    std::vector<simplex::Simplex> map(const Mesh& other_mesh, const simplex::Simplex& my_simplex)
        const;
 
 
    /*
     * @brief map a collection of simplices to another mesh
     *
     * @param mesh the mesh the simplices should be mapped to
     * @param simplices the simplices being mapped to the child mesh
     * @returns every simplex that corresponds to the passed simplices
     * */
    std::vector<simplex::Simplex> map(
        const Mesh& other_mesh,
        const std::vector<simplex::Simplex>& my_simplices) const;
 
    std::vector<simplex::Simplex> lub_map(
        const Mesh& other_mesh,
        const simplex::Simplex& my_simplex) const;
 
 
    /*
     * @brief maps a collection of simplices from this mesh to any other mesh using LUB mesh as root
     *
     * Satisfies the same properties of standard map, but uses a the LUB as the root
     *
     * @param mesh the mesh the simplices should be mapped to
     * @param simplices the simplices being mapped to the child mesh
     * @returns every simplex that corresponds to the passed simplices
     * */
    std::vector<simplex::Simplex> lub_map(
        const Mesh& other_mesh,
        const std::vector<simplex::Simplex>& my_simplices) const;
 
    simplex::Simplex map_to_parent(const simplex::Simplex& my_simplex) const;
 
    simplex::Simplex map_to_root(const simplex::Simplex& my_simplex) const;
 
    std::vector<simplex::Simplex> map_to_child(
        const Mesh& child_mesh,
        const simplex::Simplex& my_simplex) const;
 
 
    std::vector<Tuple> map_tuples(const Mesh& other_mesh, const simplex::Simplex& my_simplex) const;
 
    /*
     * @brief map a collection of homogeneous simplices to another mesh
     *
     * @param mesh the mesh the simplices should be mapped to
     * @param primitive_type the type of primitive the simplices are
     * @param tuples the tuples used to represent the simplices
     * @returns every simplex that corresponds to the passed simplices
     * */
    std::vector<Tuple> map_tuples(
        const Mesh& other_mesh,
        PrimitiveType pt,
        const std::vector<Tuple>& my_simplices) const;
 
    std::vector<Tuple> lub_map_tuples(const Mesh& other_mesh, const simplex::Simplex& my_simplex)
        const;
 
 
    /*
     * @brief maps a collection of simplices from this mesh to any other mesh using LUB mesh as root
     *
     * Satisfies the same properties of standard map_tuples, but uses a the LUB as the root
     *
     * @param mesh the mesh the simplices should be mapped to
     * @param simplices the simplices being mapped to the child mesh
     * @returns every simplex that corresponds to the passed simplices
     * */
    std::vector<Tuple> lub_map_tuples(
        const Mesh& other_mesh,
        PrimitiveType pt,
        const std::vector<Tuple>& my_simplices) const;
 
    Tuple map_to_parent_tuple(const simplex::Simplex& my_simplex) const;
 
    Tuple map_to_root_tuple(const simplex::Simplex& my_simplex) const;
 
    std::vector<Tuple> map_to_child_tuples(
        const Mesh& child_mesh,
        const simplex::Simplex& my_simplex) const;
 
 
    /*
     * @brief identifies if this simplex can be mapped to another mesh
     *
     * This tries to map a simplex to another mesh and wil return true if a simplex is found.
     * Note that the cost of this is almost hte same as mapping, so it is more efficient to map and
     * check if the returned vector is empty rather than call this function.
     */
    bool can_map(const Mesh& other_mesh, const simplex::Simplex& my_simplex) const;
 
    void update_vertex_operation_hashes(
        const Tuple& vertex,
        attribute::Accessor<int64_t>& hash_accessor);
 
 
    bool has_child_mesh_in_dimension(int64_t dimension) const
    {
        return m_multi_mesh_manager.has_child_mesh_in_dimension(dimension);
    }
 
    bool has_child_mesh() const { return m_multi_mesh_manager.has_child_mesh(); }
 
    /*
     * @brief returns if the other mesh is part of the same multi-mesh structure
     * @param other the other being mesh being checked
     * @returns true if they are part of the same structure
     **/
    bool is_from_same_multi_mesh_structure(const Mesh& other) const;
 
protected:
    // creates a scope as int64_t as the AttributeScopeHandle exists
    [[nodiscard]] attribute::AttributeScopeHandle create_single_mesh_scope();
 
public:
    int64_t id(const Tuple& tuple, PrimitiveType type) const;
 
    int64_t id(const simplex::NavigatableSimplex& s) const { return s.index(); }
    int64_t id(const simplex::IdSimplex& s) const { return s.index(); }
 
    virtual int64_t id(const simplex::Simplex& s) const = 0;
 
protected:
    virtual int64_t id_virtual(const Tuple& tuple, PrimitiveType type) const = 0;
 
 
    template <typename T, typename MeshType>
    static auto& get_index_access(attribute::Accessor<T, MeshType>& attr)
    {
        return attr.index_access();
    }
    template <typename T, typename MeshType>
    static auto& get_index_access(const attribute::Accessor<T, MeshType>& attr)
    {
        return attr.index_access();
    }
 
 
    // std::shared_ptr<AccessorCache> request_accesor_cache();
    //[[nodiscard]] AccessorScopeHandle push_accesor_scope();
 
protected: // THese are protected so unit tests can access - do not use manually in other derived
           // classes?
    attribute::AttributeManager m_attribute_manager;
 
    multimesh::MultiMeshManager m_multi_mesh_manager;
 
    int64_t m_top_cell_dimension = -1;
 
    // assumes no adjacency data exists
    bool m_is_free = false;
 
private:
    // PImpl'd manager of per-thread update stacks
    // Every time a new access scope is requested the manager creates another level of indirection
    // for updates
    // std::unique_ptr<AttributeScopeManager> m_attribute_scope_manager;
 
    //=========================================================
    // simplex::Simplex Attribute
    //=========================================================
 
 
    std::vector<TypedAttributeHandle<char>> m_flag_handles;
 
 
    std::vector<Tuple> get_all(PrimitiveType type, const bool include_deleted) const;
    std::vector<simplex::IdSimplex> get_all_id_simplex(
        PrimitiveType type,
        const bool include_deleted) const;
};
 
 
template <typename T, int D>
inline auto Mesh::create_accessor(const TypedAttributeHandle<T>& handle)
    -> attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D>
{
    return attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D>(*this, handle);
}
template <typename T, int D>
inline auto Mesh::create_const_accessor(const TypedAttributeHandle<T>& handle) const
    -> const attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D>
{
    return attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D>(*this, handle);
}
 
template <typename T, int D>
inline auto Mesh::create_accessor(const attribute::MeshAttributeHandle& handle)
    -> attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D>
{
    assert(&handle.mesh() == this);
    assert(handle.holds<T>());
    return create_accessor<T, D>(handle.as<T>());
}
 
 
template <typename T, int D>
inline auto Mesh::create_const_accessor(const attribute::MeshAttributeHandle& handle) const
    -> const attribute::Accessor<T, Mesh, attribute::CachingAttribute<T>, D>
{
    assert(&handle.mesh() == this);
    assert(handle.holds<T>());
    return create_const_accessor<T, D>(handle.as<T>());
}
 
template <typename T>
inline attribute::MeshAttributeHandle Mesh::get_attribute_handle(
    const std::string& name,
    const PrimitiveType ptype) const
{
    return wmtk::attribute::MeshAttributeHandle(
        *const_cast<Mesh*>(this),
        get_attribute_handle_typed<T>(name, ptype));
}
 
template <typename T>
inline attribute::TypedAttributeHandle<T> Mesh::get_attribute_handle_typed(
    const std::string& name,
    const PrimitiveType ptype) const
{
    wmtk::attribute::TypedAttributeHandle<T> h;
    h.m_base_handle = m_attribute_manager.get<T>(ptype).attribute_handle(name);
    h.m_primitive_type = ptype;
    return h;
}
template <typename T>
inline bool Mesh::has_attribute(const std::string& name, const PrimitiveType ptype) const
{
    return m_attribute_manager.get<T>(ptype).has_attribute(name);
}
 
template <typename T>
inline int64_t Mesh::get_attribute_dimension(const TypedAttributeHandle<T>& handle) const
{
    return m_attribute_manager.get_attribute_dimension(handle);
}
 
template <typename T>
inline std::string Mesh::get_attribute_name(const TypedAttributeHandle<T>& handle) const
{
    return m_attribute_manager.get_name(handle);
}
 
template <typename Functor, typename... Args>
inline decltype(auto) Mesh::parent_scope(Functor&& f, Args&&... args) const
{
    multimesh::attribute::UseParentScopeRAII raii(const_cast<Mesh&>(*this));
 
    return std::invoke(std::forward<Functor>(f), std::forward<Args>(args)...);
}
 
#if defined(__cpp_concepts) && defined(__cpp_lib_ranges)
template <std::ranges::forward_range ContainerType>
#else
template <typename ContainerType>
#endif
inline Tuple Mesh::switch_tuples(const Tuple& tuple, const ContainerType& sequence) const
{
    static_assert(std::is_same_v<typename ContainerType::value_type, PrimitiveType>);
    Tuple r = tuple;
    const PrimitiveType top_type = top_simplex_type();
 
    const int64_t boundary_dim = top_cell_dimension() - 1;
    const PrimitiveType boundary_pt = static_cast<PrimitiveType>(boundary_dim);
 
    for (const PrimitiveType primitive : sequence) {
        // for top level simplices we cannot navigate across boundaries
        if (primitive == top_type && is_boundary(boundary_pt, r)) {
            assert(!is_boundary(boundary_pt, r));
            r = {};
            return r;
        }
        r = switch_tuple(r, primitive);
    }
    return r;
}
inline bool Mesh::is_free() const
{
    return m_is_free;
}
 
inline int64_t Mesh::top_cell_dimension() const
{
    return m_top_cell_dimension;
}
inline PrimitiveType Mesh::top_simplex_type() const
{
    int64_t dimension = top_cell_dimension();
    assert(dimension >= 0);
    assert(dimension < 4);
    return static_cast<PrimitiveType>(dimension);
}
 
 
#if defined(__cpp_concepts) && defined(__cpp_lib_ranges)
template <std::ranges::forward_range ContainerType>
#else
template <typename ContainerType>
#endif
inline Tuple Mesh::switch_tuples_unsafe(const Tuple& tuple, const ContainerType& sequence) const
{
    static_assert(std::is_same_v<typename ContainerType::value_type, PrimitiveType>);
    Tuple r = tuple;
    for (const PrimitiveType primitive : sequence) {
        r = switch_tuple(r, primitive);
    }
    return r;
}
 
template <typename T>
inline bool Mesh::validate_handle(const TypedAttributeHandle<T>& handle) const
{
    return m_attribute_manager.validate_handle(handle);
}
 
inline int64_t Mesh::id(const Tuple& tuple, PrimitiveType type) const
{
    return id_virtual(tuple, type);
}
} // namespace wmtk