}

	assert(t.inst != nil) // only instances should have incomplete methods
	orig := t.inst.orig

	t.mu.Lock()
	defer t.mu.Unlock()

	if len(t.methods) != len(orig.methods) {
		assert(len(t.methods) == 0)
		t.methods = make([]*Func, len(orig.methods))
	}

	if t.methods[i] == nil {
		assert(t.inst.ctxt != nil) // we should still have a context remaining from the resolution phase

//  3. reflect.Value.Method (or MethodByName), or reflect.Type.Method
//     (or MethodByName)
//
// The first case is handled by the flood fill, a directly called method
// is marked as reachable.
//
// The second case is handled by decomposing all reachable interface
// types into method signatures. Each encountered method is compared
// against the interface method signatures, if it matches it is marked

   *       {@code cls}, no test is performed.
   *   <li>Equality test is not performed on method return values unless the method is a non-private
   *       static factory method whose return type is {@code cls} or {@code cls}'s subtype.
   *   <li>Inequality check is not performed against state mutation methods such as {@link
   *       List#add}, or functional update methods such as {@link

	})
}

// NumMethods returns the number of methods available.
func (s *_TypeSet) NumMethods() int { return len(s.methods) }

// Method returns the i'th method of type set s for 0 <= i < s.NumMethods().
// The methods are ordered by their unique ID.
func (s *_TypeSet) Method(i int) *Func { return s.methods[i] }

// LookupMethod returns the index of and method with matching package and name, or (-1, nil).

	})
}

// NumMethods returns the number of methods available.
func (s *_TypeSet) NumMethods() int { return len(s.methods) }

// Method returns the i'th method of type set s for 0 <= i < s.NumMethods().
// The methods are ordered by their unique ID.
func (s *_TypeSet) Method(i int) *Func { return s.methods[i] }

// LookupMethod returns the index of and method with matching package and name, or (-1, nil).

			for j := range methods {
				methods[j] = T.Method(j).Name()
			}
		} else {
			// successive rounds: methods must appear in the same order
			if got := T.NumMethods(); got != len(methods) {
				t.Errorf("got %d methods, want %d", got, len(methods))
				continue
			}
			for j, m := range methods {
				if got := T.Method(j).Name(); got != m {
					t.Errorf("got method %s, want %s", got, m)
				}
			}

        Method[] methods = type.getDeclaredMethods();
        // Make sure getters end up before the setters
        Arrays.sort(methods, comparing(Method::getName));
        for (Method method : methods) {
            processMethodAnnotations(method, methodBuilders, validationContext);
        }

   *       {@code cls}, no test is performed.
   *   <li>Equality test is not performed on method return values unless the method is a non-private
   *       static factory method whose return type is {@code cls} or {@code cls}'s subtype.
   *   <li>Inequality check is not performed against state mutation methods such as {@link
   *       List#add}, or functional update methods such as {@link

}


private
fun ReadContext.putIdentity(id: Int, instance: Any) {
    isolate.identities.putInstance(id, instance)
}


private
fun invokeAll(methods: List<Method>, bean: Any, vararg args: Any?) {
    methods.forEach { method ->
        method.invoke(bean, *args)
    }
}


object ExternalizableCodec : Codec<Externalizable> {
    override suspend fun WriteContext.encode(value: Externalizable) {

            val methods = psiElements.filterIsInstance<PsiMethod>()
            when (fir) {
                is FirFunction -> methods.singleOrNull { it.isConstructor == fir is FirConstructor }?.let {
                    bindings.put(
                        METHOD_FOR_FIR_FUNCTION,
                        fir,