#include <xrpl/beast/clock/manual_clock.h>
#include <xrpl/beast/container/aged_map.h>
#include <xrpl/beast/container/aged_multimap.h>
#include <xrpl/beast/container/aged_multiset.h>
#include <xrpl/beast/container/aged_set.h>
#include <xrpl/beast/container/aged_unordered_map.h>
#include <xrpl/beast/container/aged_unordered_multimap.h>
#include <xrpl/beast/container/aged_unordered_multiset.h>
#include <xrpl/beast/container/aged_unordered_set.h>
#include <xrpl/beast/unit_test.h>

#include <list>
#include <vector>

#ifndef BEAST_AGED_UNORDERED_NO_ALLOC_DEFAULTCTOR
#ifdef _MSC_VER
#define BEAST_AGED_UNORDERED_NO_ALLOC_DEFAULTCTOR 0
#else
#define BEAST_AGED_UNORDERED_NO_ALLOC_DEFAULTCTOR 1
#endif
#endif

#ifndef BEAST_CONTAINER_EXTRACT_NOREF
#ifdef _MSC_VER
#define BEAST_CONTAINER_EXTRACT_NOREF 1
#else
#define BEAST_CONTAINER_EXTRACT_NOREF 1
#endif
#endif

namespace beast {

class aged_associative_container_test_base : public unit_test::suite
{
public:
    template <class T>
    struct CompT
    {
        explicit CompT(int)
        {
        }

        CompT(CompT const&)
        {
        }

        bool
        operator()(T const& lhs, T const& rhs) const
        {
            return m_less(lhs, rhs);
        }

    private:
        CompT() = delete;
        std::less<T> m_less;
    };

    template <class T>
    class HashT
    {
    public:
        explicit HashT(int)
        {
        }

        std::size_t
        operator()(T const& t) const
        {
            return m_hash(t);
        }

    private:
        HashT() = delete;
        std::hash<T> m_hash;
    };

    template <class T>
    struct EqualT
    {
    public:
        explicit EqualT(int)
        {
        }

        bool
        operator()(T const& lhs, T const& rhs) const
        {
            return m_eq(lhs, rhs);
        }

    private:
        EqualT() = delete;
        std::equal_to<T> m_eq;
    };

    template <class T>
    struct AllocT
    {
        using value_type = T;

        // using std::true_type::type = propagate_on_container_swap :;

        template <class U>
        struct rebind
        {
            using other = AllocT<U>;
        };

        explicit AllocT(int)
        {
        }

        AllocT(AllocT const&) = default;

        template <class U>
        AllocT(AllocT<U> const&)
        {
        }

        template <class U>
        bool
        operator==(AllocT<U> const&) const
        {
            return true;
        }

        template <class U>
        bool
        operator!=(AllocT<U> const& o) const
        {
            return !(*this == o);
        }

        T*
        allocate(std::size_t n, T const* = 0)
        {
            return static_cast<T*>(::operator new(n * sizeof(T)));
        }

        void
        deallocate(T* p, std::size_t)
        {
            ::operator delete(p);
        }

#if !BEAST_AGED_UNORDERED_NO_ALLOC_DEFAULTCTOR
        AllocT()
        {
        }
#else
    private:
        AllocT() = delete;
#endif
    };

    //--------------------------------------------------------------------------

    // ordered
    template <class Base, bool IsUnordered>
    class MaybeUnordered : public Base
    {
    public:
        using Comp = std::less<typename Base::Key>;
        using MyComp = CompT<typename Base::Key>;

    protected:
        static std::string
        name_ordered_part()
        {
            return "";
        }
    };

    // unordered
    template <class Base>
    class MaybeUnordered<Base, true> : public Base
    {
    public:
        using Hash = std::hash<typename Base::Key>;
        using Equal = std::equal_to<typename Base::Key>;
        using MyHash = HashT<typename Base::Key>;
        using MyEqual = EqualT<typename Base::Key>;

    protected:
        static std::string
        name_ordered_part()
        {
            return "unordered_";
        }
    };

    // unique
    template <class Base, bool IsMulti>
    class MaybeMulti : public Base
    {
    public:
    protected:
        static std::string
        name_multi_part()
        {
            return "";
        }
    };

    // multi
    template <class Base>
    class MaybeMulti<Base, true> : public Base
    {
    public:
    protected:
        static std::string
        name_multi_part()
        {
            return "multi";
        }
    };

    // set
    template <class Base, bool IsMap>
    class MaybeMap : public Base
    {
    public:
        using T = void;
        using Value = typename Base::Key;
        using Values = std::vector<Value>;

        static typename Base::Key const&
        extract(Value const& value)
        {
            return value;  // NOLINT(bugprone-return-const-ref-from-parameter)
        }

        static Values
        values()
        {
            Values v{
                "apple",
                "banana",
                "cherry",
                "grape",
                "orange",
            };
            return v;
        }

    protected:
        static std::string
        name_map_part()
        {
            return "set";
        }
    };

    // map
    template <class Base>
    class MaybeMap<Base, true> : public Base
    {
    public:
        using T = int;
        using Value = std::pair<typename Base::Key, T>;
        using Values = std::vector<Value>;

        static typename Base::Key const&
        extract(Value const& value)
        {
            return value.first;
        }

        static Values
        values()
        {
            Values v{
                std::make_pair("apple", 1),
                std::make_pair("banana", 2),
                std::make_pair("cherry", 3),
                std::make_pair("grape", 4),
                std::make_pair("orange", 5)};
            return v;
        }

    protected:
        static std::string
        name_map_part()
        {
            return "map";
        }
    };

    //--------------------------------------------------------------------------

    // ordered
    template <class Base, bool IsUnordered = Base::is_unordered::value>
    struct ContType
    {
        template <
            class Compare = std::less<typename Base::Key>,
            class Allocator = std::allocator<typename Base::Value>>
        using Cont = detail::aged_ordered_container<
            Base::is_multi::value,
            Base::is_map::value,
            typename Base::Key,
            typename Base::T,
            typename Base::Clock,
            Compare,
            Allocator>;
    };

    // unordered
    template <class Base>
    struct ContType<Base, true>
    {
        template <
            class Hash = std::hash<typename Base::Key>,
            class KeyEqual = std::equal_to<typename Base::Key>,
            class Allocator = std::allocator<typename Base::Value>>
        using Cont = detail::aged_unordered_container<
            Base::is_multi::value,
            Base::is_map::value,
            typename Base::Key,
            typename Base::T,
            typename Base::Clock,
            Hash,
            KeyEqual,
            Allocator>;
    };

    //--------------------------------------------------------------------------

    struct TestTraitsBase
    {
        using Key = std::string;
        using Clock = std::chrono::steady_clock;
        using ManualClock = manual_clock<Clock>;
    };

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    struct TestTraitsHelper
        : MaybeUnordered<MaybeMulti<MaybeMap<TestTraitsBase, IsMap>, IsMulti>, IsUnordered>
    {
    private:
        using Base =
            MaybeUnordered<MaybeMulti<MaybeMap<TestTraitsBase, IsMap>, IsMulti>, IsUnordered>;

    public:
        using typename Base::Key;

        using is_unordered = std::integral_constant<bool, IsUnordered>;
        using is_multi = std::integral_constant<bool, IsMulti>;
        using is_map = std::integral_constant<bool, IsMap>;

        using Alloc = std::allocator<typename Base::Value>;
        using MyAlloc = AllocT<typename Base::Value>;

        static std::string
        name()
        {
            return std::string("aged_") + Base::name_ordered_part() + Base::name_multi_part() +
                Base::name_map_part();
        }
    };

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    struct TestTraits : TestTraitsHelper<IsUnordered, IsMulti, IsMap>,
                        ContType<TestTraitsHelper<IsUnordered, IsMulti, IsMap>>
    {
    };

    template <class Cont>
    static std::string
    name(Cont const&)
    {
        return TestTraits<Cont::is_unordered, Cont::is_multi, Cont::is_map>::name();
    }

    template <class Traits>
    struct equal_value
    {
        bool
        operator()(typename Traits::Value const& lhs, typename Traits::Value const& rhs)
        {
            return Traits::extract(lhs) == Traits::extract(rhs);
        }
    };

    template <class Cont>
    static std::vector<typename Cont::value_type>
    make_list(Cont const& c)
    {
        return std::vector<typename Cont::value_type>(c.begin(), c.end());
    }

    //--------------------------------------------------------------------------

    template <class Container, class Values>
    typename std::enable_if<Container::is_map::value && !Container::is_multi::value>::type
    checkMapContents(Container& c, Values const& v);

    template <class Container, class Values>
    typename std::enable_if<!(Container::is_map::value && !Container::is_multi::value)>::type
    checkMapContents(Container, Values const&)
    {
    }

    // unordered
    template <class C, class Values>
    typename std::enable_if<std::remove_reference<C>::type::is_unordered::value>::type
    checkUnorderedContentsRefRef(C&& c, Values const& v);

    template <class C, class Values>
    typename std::enable_if<!std::remove_reference<C>::type::is_unordered::value>::type
    checkUnorderedContentsRefRef(C&&, Values const&)
    {
    }

    template <class C, class Values>
    void
    checkContentsRefRef(C&& c, Values const& v);

    template <class Cont, class Values>
    void
    checkContents(Cont& c, Values const& v);

    template <class Cont>
    void
    checkContents(Cont& c);

    //--------------------------------------------------------------------------

    // ordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!IsUnordered>::type
    testConstructEmpty();

    // unordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsUnordered>::type
    testConstructEmpty();

    // ordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!IsUnordered>::type
    testConstructRange();

    // unordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsUnordered>::type
    testConstructRange();

    // ordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!IsUnordered>::type
    testConstructInitList();

    // unordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsUnordered>::type
    testConstructInitList();

    //--------------------------------------------------------------------------

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testCopyMove();

    //--------------------------------------------------------------------------

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testIterator();

    // Unordered containers don't have reverse iterators
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!IsUnordered>::type
    testReverseIterator();

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsUnordered>::type
    testReverseIterator()
    {
    }

    //--------------------------------------------------------------------------

    template <class Container, class Values>
    void
    checkInsertCopy(Container& c, Values const& v);

    template <class Container, class Values>
    void
    checkInsertMove(Container& c, Values const& v);

    template <class Container, class Values>
    void
    checkInsertHintCopy(Container& c, Values const& v);

    template <class Container, class Values>
    void
    checkInsertHintMove(Container& c, Values const& v);

    template <class Container, class Values>
    void
    checkEmplace(Container& c, Values const& v);

    template <class Container, class Values>
    void
    checkEmplaceHint(Container& c, Values const& v);

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testModifiers();

    //--------------------------------------------------------------------------

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testChronological();

    //--------------------------------------------------------------------------

    // map, unordered_map
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsMap && !IsMulti>::type
    testArrayCreate();

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!(IsMap && !IsMulti)>::type
    testArrayCreate()
    {
    }

    //--------------------------------------------------------------------------

    // Helpers for erase tests
    template <class Container, class Values>
    void
    reverseFillAgedContainer(Container& c, Values const& v);

    template <class Iter>
    Iter
    nextToEndIter(Iter const beginIter, Iter const endItr);

    //--------------------------------------------------------------------------

    template <class Container, class Iter>
    bool
    doElementErase(Container& c, Iter const beginItr, Iter const endItr);

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testElementErase();

    //--------------------------------------------------------------------------

    template <class Container, class BeginEndSrc>
    void
    doRangeErase(Container& c, BeginEndSrc const& beginEndSrc);

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testRangeErase();

    //--------------------------------------------------------------------------

    // ordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!IsUnordered>::type
    testCompare();

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsUnordered>::type
    testCompare()
    {
    }

    //--------------------------------------------------------------------------

    // ordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<!IsUnordered>::type
    testObservers();

    // unordered
    template <bool IsUnordered, bool IsMulti, bool IsMap>
    typename std::enable_if<IsUnordered>::type
    testObservers();

    //--------------------------------------------------------------------------

    template <bool IsUnordered, bool IsMulti, bool IsMap>
    void
    testMaybeUnorderedMultiMap();

    template <bool IsUnordered, bool IsMulti>
    void
    testMaybeUnorderedMulti();

    template <bool IsUnordered>
    void
    testMaybeUnordered();
};

//------------------------------------------------------------------------------

// Check contents via at() and operator[]
// map, unordered_map
template <class Container, class Values>
typename std::enable_if<Container::is_map::value && !Container::is_multi::value>::type
aged_associative_container_test_base::checkMapContents(Container& c, Values const& v)
{
    if (v.empty())
    {
        BEAST_EXPECT(c.empty());
        BEAST_EXPECT(c.size() == 0);
        return;
    }

    try
    {
        // Make sure no exception is thrown
        for (auto const& e : v)
            c.at(e.first);
        for (auto const& e : v)
            BEAST_EXPECT(c.operator[](e.first) == e.second);
    }
    catch (std::out_of_range const&)
    {
        fail("caught exception");
    }
}

// unordered
template <class C, class Values>
typename std::enable_if<std::remove_reference<C>::type::is_unordered::value>::type
aged_associative_container_test_base::checkUnorderedContentsRefRef(C&& c, Values const& v)
{
    using Cont = typename std::remove_reference<C>::type;
    using Traits =
        TestTraits<Cont::is_unordered::value, Cont::is_multi::value, Cont::is_map::value>;
    using size_type = typename Cont::size_type;
    auto const hash(c.hash_function());
    auto const key_eq(c.key_eq());
    for (size_type i(0); i < c.bucket_count(); ++i)
    {
        auto const last(c.end(i));
        for (auto iter(c.begin(i)); iter != last; ++iter)
        {
            auto const match(
                std::find_if(v.begin(), v.end(), [iter](typename Values::value_type const& e) {
                    return Traits::extract(*iter) == Traits::extract(e);
                }));
            BEAST_EXPECT(match != v.end());
            BEAST_EXPECT(key_eq(Traits::extract(*iter), Traits::extract(*match)));
            BEAST_EXPECT(hash(Traits::extract(*iter)) == hash(Traits::extract(*match)));
        }
    }
}

template <class C, class Values>
void
aged_associative_container_test_base::checkContentsRefRef(C&& c, Values const& v)
{
    using Cont = typename std::remove_reference<C>::type;
    using size_type = typename Cont::size_type;

    BEAST_EXPECT(c.size() == v.size());
    BEAST_EXPECT(size_type(std::distance(c.begin(), c.end())) == v.size());
    BEAST_EXPECT(size_type(std::distance(c.cbegin(), c.cend())) == v.size());
    BEAST_EXPECT(
        size_type(std::distance(c.chronological.begin(), c.chronological.end())) == v.size());
    BEAST_EXPECT(
        size_type(std::distance(c.chronological.cbegin(), c.chronological.cend())) == v.size());
    BEAST_EXPECT(
        size_type(std::distance(c.chronological.rbegin(), c.chronological.rend())) == v.size());
    BEAST_EXPECT(
        size_type(std::distance(c.chronological.crbegin(), c.chronological.crend())) == v.size());

    checkUnorderedContentsRefRef(c, v);
}

template <class Cont, class Values>
void
aged_associative_container_test_base::checkContents(Cont& c, Values const& v)
{
    checkContentsRefRef(c, v);
    checkContentsRefRef(const_cast<Cont const&>(c), v);
    checkMapContents(c, v);
}

template <class Cont>
void
aged_associative_container_test_base::checkContents(Cont& c)
{
    using Traits =
        TestTraits<Cont::is_unordered::value, Cont::is_multi::value, Cont::is_map::value>;
    using Values = typename Traits::Values;
    checkContents(c, Values());
}

//------------------------------------------------------------------------------
//
// Construction
//
//------------------------------------------------------------------------------

// ordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<!IsUnordered>::type
aged_associative_container_test_base::testConstructEmpty()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    using Comp = typename Traits::Comp;
    using Alloc = typename Traits::Alloc;
    using MyComp = typename Traits::MyComp;
    using MyAlloc = typename Traits::MyAlloc;
    typename Traits::ManualClock clock;

    // testcase (Traits::name() + " empty");
    testcase("empty");

    {
        typename Traits::template Cont<Comp, Alloc> c(clock);
        checkContents(c);
    }

    {
        typename Traits::template Cont<MyComp, Alloc> c(clock, MyComp(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<Comp, MyAlloc> c(clock, MyAlloc(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<MyComp, MyAlloc> c(clock, MyComp(1), MyAlloc(1));
        checkContents(c);
    }
}

// unordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<IsUnordered>::type
aged_associative_container_test_base::testConstructEmpty()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    using Hash = typename Traits::Hash;
    using Equal = typename Traits::Equal;
    using Alloc = typename Traits::Alloc;
    using MyHash = typename Traits::MyHash;
    using MyEqual = typename Traits::MyEqual;
    using MyAlloc = typename Traits::MyAlloc;
    typename Traits::ManualClock clock;

    // testcase (Traits::name() + " empty");
    testcase("empty");
    {
        typename Traits::template Cont<Hash, Equal, Alloc> c(clock);
        checkContents(c);
    }

    {
        typename Traits::template Cont<MyHash, Equal, Alloc> c(clock, MyHash(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<Hash, MyEqual, Alloc> c(clock, MyEqual(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<Hash, Equal, MyAlloc> c(clock, MyAlloc(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<MyHash, MyEqual, Alloc> c(clock, MyHash(1), MyEqual(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<MyHash, Equal, MyAlloc> c(clock, MyHash(1), MyAlloc(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<Hash, MyEqual, MyAlloc> c(clock, MyEqual(1), MyAlloc(1));
        checkContents(c);
    }

    {
        typename Traits::template Cont<MyHash, MyEqual, MyAlloc> c(
            clock, MyHash(1), MyEqual(1), MyAlloc(1));
        checkContents(c);
    }
}

// ordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<!IsUnordered>::type
aged_associative_container_test_base::testConstructRange()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    using Comp = typename Traits::Comp;
    using Alloc = typename Traits::Alloc;
    using MyComp = typename Traits::MyComp;
    using MyAlloc = typename Traits::MyAlloc;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " range");
    testcase("range");

    {
        typename Traits::template Cont<Comp, Alloc> c(v.begin(), v.end(), clock);
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<MyComp, Alloc> c(v.begin(), v.end(), clock, MyComp(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<Comp, MyAlloc> c(v.begin(), v.end(), clock, MyAlloc(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<MyComp, MyAlloc> c(
            v.begin(), v.end(), clock, MyComp(1), MyAlloc(1));
        checkContents(c, v);
    }

    // swap

    {
        typename Traits::template Cont<Comp, Alloc> c1(v.begin(), v.end(), clock);
        typename Traits::template Cont<Comp, Alloc> c2(clock);
        std::swap(c1, c2);
        checkContents(c2, v);
    }
}

// unordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<IsUnordered>::type
aged_associative_container_test_base::testConstructRange()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    using Hash = typename Traits::Hash;
    using Equal = typename Traits::Equal;
    using Alloc = typename Traits::Alloc;
    using MyHash = typename Traits::MyHash;
    using MyEqual = typename Traits::MyEqual;
    using MyAlloc = typename Traits::MyAlloc;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " range");
    testcase("range");

    {
        typename Traits::template Cont<Hash, Equal, Alloc> c(v.begin(), v.end(), clock);
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<MyHash, Equal, Alloc> c(
            v.begin(), v.end(), clock, MyHash(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<Hash, MyEqual, Alloc> c(
            v.begin(), v.end(), clock, MyEqual(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<Hash, Equal, MyAlloc> c(
            v.begin(), v.end(), clock, MyAlloc(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<MyHash, MyEqual, Alloc> c(
            v.begin(), v.end(), clock, MyHash(1), MyEqual(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<MyHash, Equal, MyAlloc> c(
            v.begin(), v.end(), clock, MyHash(1), MyAlloc(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<Hash, MyEqual, MyAlloc> c(
            v.begin(), v.end(), clock, MyEqual(1), MyAlloc(1));
        checkContents(c, v);
    }

    {
        typename Traits::template Cont<MyHash, MyEqual, MyAlloc> c(
            v.begin(), v.end(), clock, MyHash(1), MyEqual(1), MyAlloc(1));
        checkContents(c, v);
    }
}

// ordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<!IsUnordered>::type
aged_associative_container_test_base::testConstructInitList()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;

    // testcase (Traits::name() + " init-list");
    testcase("init-list");

    // VFALCO TODO

    pass();
}

// unordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<IsUnordered>::type
aged_associative_container_test_base::testConstructInitList()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;

    // testcase (Traits::name() + " init-list");
    testcase("init-list");

    // VFALCO TODO
    pass();
}

//------------------------------------------------------------------------------
//
// Copy/Move construction and assign
//
//------------------------------------------------------------------------------

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testCopyMove()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    using Alloc = typename Traits::Alloc;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " copy/move");
    testcase("copy/move");

    // copy

    {
        typename Traits::template Cont<> c(v.begin(), v.end(), clock);
        typename Traits::template Cont<> c2(c);
        checkContents(c, v);
        checkContents(c2, v);
        BEAST_EXPECT(c == c2);
        unexpected(c != c2);
    }

    {
        typename Traits::template Cont<> c(v.begin(), v.end(), clock);
        typename Traits::template Cont<> c2(c, Alloc());
        checkContents(c, v);
        checkContents(c2, v);
        BEAST_EXPECT(c == c2);
        unexpected(c != c2);
    }

    {
        typename Traits::template Cont<> c(v.begin(), v.end(), clock);
        typename Traits::template Cont<> c2(clock);
        c2 = c;
        checkContents(c, v);
        checkContents(c2, v);
        BEAST_EXPECT(c == c2);
        unexpected(c != c2);
    }

    // move

    {
        typename Traits::template Cont<> c(v.begin(), v.end(), clock);
        typename Traits::template Cont<> c2(std::move(c));
        checkContents(c2, v);
    }

    {
        typename Traits::template Cont<> c(v.begin(), v.end(), clock);
        typename Traits::template Cont<> c2(std::move(c), Alloc());
        checkContents(c2, v);
    }

    {
        typename Traits::template Cont<> c(v.begin(), v.end(), clock);
        typename Traits::template Cont<> c2(clock);
        c2 = std::move(c);
        checkContents(c2, v);
    }
}

//------------------------------------------------------------------------------
//
// Iterator construction and assignment
//
//------------------------------------------------------------------------------

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testIterator()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " iterators");
    testcase("iterator");

    typename Traits::template Cont<> c{clock};

    using iterator = decltype(c.begin());
    using const_iterator = decltype(c.cbegin());

    // Should be able to construct or assign an iterator from an iterator.
    iterator nnIt_0{c.begin()};
    iterator nnIt_1{nnIt_0};
    BEAST_EXPECT(nnIt_0 == nnIt_1);
    iterator nnIt_2;
    nnIt_2 = nnIt_1;
    BEAST_EXPECT(nnIt_1 == nnIt_2);

    // Should be able to construct or assign a const_iterator from a
    // const_iterator.
    const_iterator ccIt_0{c.cbegin()};
    const_iterator ccIt_1{ccIt_0};
    BEAST_EXPECT(ccIt_0 == ccIt_1);
    const_iterator ccIt_2;
    ccIt_2 = ccIt_1;
    BEAST_EXPECT(ccIt_1 == ccIt_2);

    // Comparison between iterator and const_iterator is okay
    BEAST_EXPECT(nnIt_0 == ccIt_0);
    BEAST_EXPECT(ccIt_1 == nnIt_1);

    // Should be able to construct a const_iterator from an iterator.
    const_iterator ncIt_3{c.begin()};
    const_iterator ncIt_4{nnIt_0};
    BEAST_EXPECT(ncIt_3 == ncIt_4);
    const_iterator ncIt_5;
    ncIt_5 = nnIt_2;
    BEAST_EXPECT(ncIt_5 == ncIt_4);

    // None of these should compile because they construct or assign to a
    // non-const iterator with a const_iterator.

    //  iterator cnIt_0 {c.cbegin()};

    //  iterator cnIt_1 {ccIt_0};

    //  iterator cnIt_2;
    //  cnIt_2 = ccIt_2;
}

template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<!IsUnordered>::type
aged_associative_container_test_base::testReverseIterator()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " reverse_iterators");
    testcase("reverse_iterator");

    typename Traits::template Cont<> c{clock};

    using iterator = decltype(c.begin());
    using reverse_iterator = decltype(c.rbegin());
    using const_reverse_iterator = decltype(c.crbegin());

    // Naming decoder ring
    //       constructed from ------+ +----- constructed type
    //                              /\/\  -- character pairs
    //                              xAyBit
    //  r (reverse) or f (forward)--^-^
    //                               ^-^------ C (const) or N (non-const)

    // Should be able to construct or assign a reverse_iterator from a
    // reverse_iterator.
    reverse_iterator rNrNit_0{c.rbegin()};
    reverse_iterator rNrNit_1{rNrNit_0};
    BEAST_EXPECT(rNrNit_0 == rNrNit_1);
    reverse_iterator xXrNit_2;
    xXrNit_2 = rNrNit_1;
    BEAST_EXPECT(rNrNit_1 == xXrNit_2);

    // Should be able to construct or assign a const_reverse_iterator from a
    // const_reverse_iterator
    const_reverse_iterator rCrCit_0{c.crbegin()};
    const_reverse_iterator rCrCit_1{rCrCit_0};
    BEAST_EXPECT(rCrCit_0 == rCrCit_1);
    const_reverse_iterator xXrCit_2;
    xXrCit_2 = rCrCit_1;
    BEAST_EXPECT(rCrCit_1 == xXrCit_2);

    // Comparison between reverse_iterator and const_reverse_iterator is okay
    BEAST_EXPECT(rNrNit_0 == rCrCit_0);
    BEAST_EXPECT(rCrCit_1 == rNrNit_1);

    // Should be able to construct or assign a const_reverse_iterator from a
    // reverse_iterator
    const_reverse_iterator rNrCit_0{c.rbegin()};
    const_reverse_iterator rNrCit_1{rNrNit_0};
    BEAST_EXPECT(rNrCit_0 == rNrCit_1);
    xXrCit_2 = rNrNit_1;
    BEAST_EXPECT(rNrCit_1 == xXrCit_2);

    // The standard allows these conversions:
    //  o reverse_iterator is explicitly constructible from iterator.
    //  o const_reverse_iterator is explicitly constructible from
    //  const_iterator.
    // Should be able to construct or assign reverse_iterators from
    // non-reverse iterators.
    reverse_iterator fNrNit_0{c.begin()};
    const_reverse_iterator fNrCit_0{c.begin()};
    BEAST_EXPECT(fNrNit_0 == fNrCit_0);
    const_reverse_iterator fCrCit_0{c.cbegin()};
    BEAST_EXPECT(fNrCit_0 == fCrCit_0);

    // None of these should compile because they construct a non-reverse
    // iterator from a reverse_iterator.
    //  iterator rNfNit_0 {c.rbegin()};
    //  const_iterator rNfCit_0 {c.rbegin()};
    //  const_iterator rCfCit_0 {c.crbegin()};

    // You should not be able to assign an iterator to a reverse_iterator or
    // vise-versa.  So the following lines should not compile.
    iterator xXfNit_0;
    //  xXfNit_0 = xXrNit_2;
    //  xXrNit_2 = xXfNit_0;
}

//------------------------------------------------------------------------------
//
// Modifiers
//
//------------------------------------------------------------------------------

template <class Container, class Values>
void
aged_associative_container_test_base::checkInsertCopy(Container& c, Values const& v)
{
    for (auto const& e : v)
        c.insert(e);
    checkContents(c, v);
}

template <class Container, class Values>
void
aged_associative_container_test_base::checkInsertMove(Container& c, Values const& v)
{
    Values v2(v);
    for (auto& e : v2)
        c.insert(std::move(e));
    checkContents(c, v);
}

template <class Container, class Values>
void
aged_associative_container_test_base::checkInsertHintCopy(Container& c, Values const& v)
{
    for (auto const& e : v)
        c.insert(c.cend(), e);
    checkContents(c, v);
}

template <class Container, class Values>
void
aged_associative_container_test_base::checkInsertHintMove(Container& c, Values const& v)
{
    Values v2(v);
    for (auto& e : v2)
        c.insert(c.cend(), std::move(e));
    checkContents(c, v);
}

template <class Container, class Values>
void
aged_associative_container_test_base::checkEmplace(Container& c, Values const& v)
{
    for (auto const& e : v)
        c.emplace(e);
    checkContents(c, v);
}

template <class Container, class Values>
void
aged_associative_container_test_base::checkEmplaceHint(Container& c, Values const& v)
{
    for (auto const& e : v)
        c.emplace_hint(c.cend(), e);
    checkContents(c, v);
}

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testModifiers()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());
    auto const l(make_list(v));

    // testcase (Traits::name() + " modify");
    testcase("modify");

    {
        typename Traits::template Cont<> c(clock);
        checkInsertCopy(c, v);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertCopy(c, l);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertMove(c, v);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertMove(c, l);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertHintCopy(c, v);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertHintCopy(c, l);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertHintMove(c, v);
    }

    {
        typename Traits::template Cont<> c(clock);
        checkInsertHintMove(c, l);
    }
}

//------------------------------------------------------------------------------
//
// Chronological ordering
//
//------------------------------------------------------------------------------

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testChronological()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " chronological");
    testcase("chronological");

    typename Traits::template Cont<> c(v.begin(), v.end(), clock);

    BEAST_EXPECT(
        std::equal(
            c.chronological.cbegin(),
            c.chronological.cend(),
            v.begin(),
            v.end(),
            equal_value<Traits>()));

    // Test touch() with a non-const iterator.
    for (auto iter(v.crbegin()); iter != v.crend(); ++iter)
    {
        using iterator = typename decltype(c)::iterator;
        iterator found(c.find(Traits::extract(*iter)));

        BEAST_EXPECT(found != c.cend());
        if (found == c.cend())
            return;
        c.touch(found);
    }

    BEAST_EXPECT(
        std::equal(
            c.chronological.cbegin(),
            c.chronological.cend(),
            v.crbegin(),
            v.crend(),
            equal_value<Traits>()));

    // Test touch() with a const_iterator
    for (auto iter(v.cbegin()); iter != v.cend(); ++iter)
    {
        using const_iterator = typename decltype(c)::const_iterator;
        const_iterator found(c.find(Traits::extract(*iter)));

        BEAST_EXPECT(found != c.cend());
        if (found == c.cend())
            return;
        c.touch(found);
    }

    BEAST_EXPECT(
        std::equal(
            c.chronological.cbegin(),
            c.chronological.cend(),
            v.cbegin(),
            v.cend(),
            equal_value<Traits>()));

    {
        // Because touch (reverse_iterator pos) is not allowed, the following
        // lines should not compile for any aged_container type.
        //      c.touch (c.rbegin());
        //      c.touch (c.crbegin());
    }
}

//------------------------------------------------------------------------------
//
// Element creation via operator[]
//
//------------------------------------------------------------------------------

// map, unordered_map
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<IsMap && !IsMulti>::type
aged_associative_container_test_base::testArrayCreate()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;
    auto v(Traits::values());

    // testcase (Traits::name() + " array create");
    testcase("array create");

    {
        // Copy construct key
        typename Traits::template Cont<> c(clock);
        for (auto e : v)
            c[e.first] = e.second;
        checkContents(c, v);
    }

    {
        // Move construct key
        typename Traits::template Cont<> c(clock);
        for (auto e : v)
            c[std::move(e.first)] = e.second;
        checkContents(c, v);
    }
}

//------------------------------------------------------------------------------
//
// Helpers for erase tests
//
//------------------------------------------------------------------------------

template <class Container, class Values>
void
aged_associative_container_test_base::reverseFillAgedContainer(Container& c, Values const& values)
{
    // Just in case the passed in container was not empty.
    c.clear();

    // c.clock() returns an abstract_clock, so dynamic_cast to manual_clock.
    // VFALCO NOTE This is sketchy
    using ManualClock = TestTraitsBase::ManualClock;
    ManualClock& clk(dynamic_cast<ManualClock&>(c.clock()));
    clk.set(0);

    Values rev(values);
    std::sort(rev.begin(), rev.end());
    std::reverse(rev.begin(), rev.end());
    for (auto& v : rev)
    {
        // Add values in reverse order so they are reversed chronologically.
        ++clk;
        c.insert(v);
    }
}

// Get one iterator before endIter.  We have to use operator++ because you
// cannot use operator-- with unordered container iterators.
template <class Iter>
Iter
aged_associative_container_test_base::nextToEndIter(Iter beginIter, Iter const endIter)
{
    if (beginIter == endIter)
    {
        fail("Internal test failure. Cannot advance beginIter");
        return beginIter;
    }

    //
    Iter nextToEnd = beginIter;
    do
    {
        nextToEnd = beginIter++;
    } while (beginIter != endIter);
    return nextToEnd;
}

// Implementation for the element erase tests
//
// This test accepts:
//  o the container from which we will erase elements
//  o iterators into that container defining the range of the erase
//
// This implementation does not declare a pass, since it wants to allow
// the caller to examine the size of the container and the returned iterator
//
// Note that this test works on the aged_associative containers because an
// erase only invalidates references and iterators to the erased element
// (see 23.2.4/13).  Therefore the passed-in end iterator stays valid through
// the whole test.
template <class Container, class Iter>
bool
aged_associative_container_test_base::doElementErase(
    Container& c,
    Iter const beginItr,
    Iter const endItr)
{
    auto it(beginItr);
    size_t count = c.size();
    while (it != endItr)
    {
        auto expectIt = it;
        ++expectIt;
        it = c.erase(it);

        if (it != expectIt)
        {
            fail("Unexpected returned iterator from element erase");
            return false;
        }

        --count;
        if (count != c.size())
        {
            fail("Failed to erase element");
            return false;
        }

        if (c.empty())
        {
            if (it != endItr)
            {
                fail("Erase of last element didn't produce end");
                return false;
            }
        }
    }
    return true;
}

//------------------------------------------------------------------------------
//
// Erase of individual elements
//
//------------------------------------------------------------------------------

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testElementErase()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;

    // testcase (Traits::name() + " element erase"
    testcase("element erase");

    // Make and fill the container
    typename Traits::ManualClock clock;
    typename Traits::template Cont<> c{clock};
    reverseFillAgedContainer(c, Traits::values());

    {
        // Test standard iterators
        auto tempContainer(c);
        if (!doElementErase(tempContainer, tempContainer.cbegin(), tempContainer.cend()))
            return;  // Test failed

        BEAST_EXPECT(tempContainer.empty());
        pass();
    }
    {
        // Test chronological iterators
        auto tempContainer(c);
        auto& chron(tempContainer.chronological);
        if (!doElementErase(tempContainer, chron.begin(), chron.end()))
            return;  // Test failed

        BEAST_EXPECT(tempContainer.empty());
        pass();
    }
    {
        // Test standard iterator partial erase
        auto tempContainer(c);
        BEAST_EXPECT(tempContainer.size() > 2);
        if (!doElementErase(
                tempContainer,
                ++tempContainer.begin(),
                nextToEndIter(tempContainer.begin(), tempContainer.end())))
            return;  // Test failed

        BEAST_EXPECT(tempContainer.size() == 2);
        pass();
    }
    {
        // Test chronological iterator partial erase
        auto tempContainer(c);
        BEAST_EXPECT(tempContainer.size() > 2);
        auto& chron(tempContainer.chronological);
        if (!doElementErase(
                tempContainer, ++chron.begin(), nextToEndIter(chron.begin(), chron.end())))
            return;  // Test failed

        BEAST_EXPECT(tempContainer.size() == 2);
        pass();
    }
    {
        auto tempContainer(c);
        BEAST_EXPECT(tempContainer.size() > 4);
        // erase(reverse_iterator) is not allowed.  None of the following
        // should compile for any aged_container type.
        //      c.erase (c.rbegin());
        //      c.erase (c.crbegin());
        //      c.erase(c.rbegin(), ++c.rbegin());
        //      c.erase(c.crbegin(), ++c.crbegin());
    }
}

// Implementation for the range erase tests
//
// This test accepts:
//
//  o A container with more than 2 elements and
//  o An object to ask for begin() and end() iterators in the passed container
//
// This peculiar interface allows either the container itself to be passed as
// the second argument or the container's "chronological" element.  Both
// sources of iterators need to be tested on the container.
//
// The test locates iterators such that a range-based delete leaves the first
// and last elements in the container.  It then validates that the container
// ended up with the expected contents.
//
template <class Container, class BeginEndSrc>
void
aged_associative_container_test_base::doRangeErase(Container& c, BeginEndSrc const& beginEndSrc)
{
    BEAST_EXPECT(c.size() > 2);
    auto itBeginPlusOne(beginEndSrc.begin());
    auto const valueFront = *itBeginPlusOne;
    ++itBeginPlusOne;

    // Get one iterator before end()
    auto itBack(nextToEndIter(itBeginPlusOne, beginEndSrc.end()));
    auto const valueBack = *itBack;

    // Erase all elements but first and last
    auto const retIter = c.erase(itBeginPlusOne, itBack);

    BEAST_EXPECT(c.size() == 2);
    BEAST_EXPECT(valueFront == *(beginEndSrc.begin()));
    BEAST_EXPECT(valueBack == *(++beginEndSrc.begin()));
    BEAST_EXPECT(retIter == (++beginEndSrc.begin()));
}

//------------------------------------------------------------------------------
//
// Erase range of elements
//
//------------------------------------------------------------------------------

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testRangeErase()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;

    // testcase (Traits::name() + " element erase"
    testcase("range erase");

    // Make and fill the container
    typename Traits::ManualClock clock;
    typename Traits::template Cont<> c{clock};
    reverseFillAgedContainer(c, Traits::values());

    // Not bothering to test range erase with reverse iterators.
    {
        auto tempContainer(c);
        doRangeErase(tempContainer, tempContainer);
    }
    {
        auto tempContainer(c);
        doRangeErase(tempContainer, tempContainer.chronological);
    }
}

//------------------------------------------------------------------------------
//
// Container-wide comparison
//
//------------------------------------------------------------------------------

// ordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<!IsUnordered>::type
aged_associative_container_test_base::testCompare()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;
    auto const v(Traits::values());

    // testcase (Traits::name() + " array create");
    testcase("array create");

    typename Traits::template Cont<> c1(v.begin(), v.end(), clock);

    typename Traits::template Cont<> c2(v.begin(), v.end(), clock);
    c2.erase(c2.cbegin());

    expect(c1 != c2);
    unexpected(c1 == c2);
    expect(c1 < c2);
    expect(c1 <= c2);
    unexpected(c1 > c2);
    unexpected(c1 >= c2);
}

//------------------------------------------------------------------------------
//
// Observers
//
//------------------------------------------------------------------------------

// ordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<!IsUnordered>::type
aged_associative_container_test_base::testObservers()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;

    // testcase (Traits::name() + " observers");
    testcase("observers");

    typename Traits::template Cont<> c(clock);
    c.key_comp();
    c.value_comp();

    pass();
}

// unordered
template <bool IsUnordered, bool IsMulti, bool IsMap>
typename std::enable_if<IsUnordered>::type
aged_associative_container_test_base::testObservers()
{
    using Traits = TestTraits<IsUnordered, IsMulti, IsMap>;
    typename Traits::ManualClock clock;

    // testcase (Traits::name() + " observers");
    testcase("observers");

    typename Traits::template Cont<> c(clock);
    c.hash_function();
    c.key_eq();

    pass();
}

//------------------------------------------------------------------------------
//
// Matrix
//
//------------------------------------------------------------------------------

template <bool IsUnordered, bool IsMulti, bool IsMap>
void
aged_associative_container_test_base::testMaybeUnorderedMultiMap()
{
    testConstructEmpty<IsUnordered, IsMulti, IsMap>();
    testConstructRange<IsUnordered, IsMulti, IsMap>();
    testConstructInitList<IsUnordered, IsMulti, IsMap>();
    testCopyMove<IsUnordered, IsMulti, IsMap>();
    testIterator<IsUnordered, IsMulti, IsMap>();
    testReverseIterator<IsUnordered, IsMulti, IsMap>();
    testModifiers<IsUnordered, IsMulti, IsMap>();
    testChronological<IsUnordered, IsMulti, IsMap>();
    testArrayCreate<IsUnordered, IsMulti, IsMap>();
    testElementErase<IsUnordered, IsMulti, IsMap>();
    testRangeErase<IsUnordered, IsMulti, IsMap>();
    testCompare<IsUnordered, IsMulti, IsMap>();
    testObservers<IsUnordered, IsMulti, IsMap>();
}

//------------------------------------------------------------------------------

class aged_set_test : public aged_associative_container_test_base
{
public:
    // Compile time checks

    using Key = std::string;
    using T = int;

    static_assert(
        std::is_same<aged_set<Key>, detail::aged_ordered_container<false, false, Key, void>>::value,
        "bad alias: aged_set");

    static_assert(
        std::is_same<aged_multiset<Key>, detail::aged_ordered_container<true, false, Key, void>>::
            value,
        "bad alias: aged_multiset");

    static_assert(
        std::is_same<aged_map<Key, T>, detail::aged_ordered_container<false, true, Key, T>>::value,
        "bad alias: aged_map");

    static_assert(
        std::is_same<aged_multimap<Key, T>, detail::aged_ordered_container<true, true, Key, T>>::
            value,
        "bad alias: aged_multimap");

    static_assert(
        std::is_same<
            aged_unordered_set<Key>,
            detail::aged_unordered_container<false, false, Key, void>>::value,
        "bad alias: aged_unordered_set");

    static_assert(
        std::is_same<
            aged_unordered_multiset<Key>,
            detail::aged_unordered_container<true, false, Key, void>>::value,
        "bad alias: aged_unordered_multiset");

    static_assert(
        std::is_same<
            aged_unordered_map<Key, T>,
            detail::aged_unordered_container<false, true, Key, T>>::value,
        "bad alias: aged_unordered_map");

    static_assert(
        std::is_same<
            aged_unordered_multimap<Key, T>,
            detail::aged_unordered_container<true, true, Key, T>>::value,
        "bad alias: aged_unordered_multimap");

    void
    run() override
    {
        testMaybeUnorderedMultiMap<false, false, false>();
    }
};

class aged_map_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<false, false, true>();
    }
};

class aged_multiset_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<false, true, false>();
    }
};

class aged_multimap_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<false, true, true>();
    }
};

class aged_unordered_set_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<true, false, false>();
    }
};

class aged_unordered_map_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<true, false, true>();
    }
};

class aged_unordered_multiset_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<true, true, false>();
    }
};

class aged_unordered_multimap_test : public aged_associative_container_test_base
{
public:
    void
    run() override
    {
        testMaybeUnorderedMultiMap<true, true, true>();
    }
};

BEAST_DEFINE_TESTSUITE(aged_set, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_map, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_multiset, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_multimap, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_unordered_set, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_unordered_map, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_unordered_multiset, beast, beast);
BEAST_DEFINE_TESTSUITE(aged_unordered_multimap, beast, beast);

}  // namespace beast