// is not a cryptographically secure group, and should only be used to interact
// with edwards25519.Point coordinates.
//
// This type works similarly to math/big.Int, and all arguments and receivers
// are allowed to alias.
//
// The zero value is a valid zero element.
type Element struct {
	// An element t represents the integer
	//     t.l0 + t.l1*2^51 + t.l2*2^102 + t.l3*2^153 + t.l4*2^204
	//

			continue
		}
		for _, decl := range f.Decls {
			fn, ok := decl.(*ast.FuncDecl)
			if !ok || fn.Recv != nil {
				// Ignore non-functions or functions with receivers.
				continue
			}
			switch {
			case strings.HasPrefix(fn.Name.Name, "Example"):
				checkExampleName(pass, fn)
				checkExampleOutput(pass, fn, f.Comments)
			case strings.HasPrefix(fn.Name.Name, "Test"):

	if !receiver.IsValid() {
		if s.tmpl.option.missingKey == mapError { // Treat invalid value as missing map key.
			s.errorf("nil data; no entry for key %q", fieldName)
		}
		return zero
	}
	typ := receiver.Type()
	receiver, isNil := indirect(receiver)
	if receiver.Kind() == reflect.Interface && isNil {

                buildFunctionCall {
                    // NOTE: We only need to copy the explicit receiver and not the dispatch and extension receivers as only the explicit
                    // receiver is needed by the resolver. The dispatch and extension receivers are only assigned after resolution when a
                    // candidate is selected.

    /**
     * We shouldn't expose imported callables as they may have different [org.jetbrains.kotlin.name.CallableId]s
     * than the original callables.
     * Resolved FIR has explicitly declared original objects receivers instead of such synthetic callables.
     */
    private inline fun <reified T : FirCallableSymbol<*>, R> T.unwrapImportedFromObjectOrStatic(builder: (T) -> R): R? {

	if err != nil {
		errorf("declReader.ReadByte: %v", err)
	}
	return x
}

func baseType(typ types.Type) *types.Named {
	// pointer receivers are never types.Named types
	if p, _ := typ.(*types.Pointer); p != nil {
		typ = p.Elem()
	}
	// receiver base types are always (possibly generic) types.Named types
	n, _ := typ.(*types.Named)
	return n
}

const blankMarker = "$"

	inBlockUses []bool
}

func (h ValHeap) Len() int      { return len(h.a) }
func (h ValHeap) Swap(i, j int) { a := h.a; a[i], a[j] = a[j], a[i] }

func (h *ValHeap) Push(x interface{}) {
	// Push and Pop use pointer receivers because they modify the slice's length,
	// not just its contents.
	v := x.(*Value)
	h.a = append(h.a, v)
}
func (h *ValHeap) Pop() interface{} {
	old := h.a
	n := len(old)
	x := old[n-1]
	h.a = old[0 : n-1]

import org.jetbrains.kotlin.resolve.lazy.descriptors.LazyAnnotationDescriptor
import org.jetbrains.kotlin.resolve.sam.SamConstructorDescriptor
import org.jetbrains.kotlin.resolve.scopes.receivers.ImplicitContextReceiver
import org.jetbrains.kotlin.resolve.source.PsiSourceElement
import org.jetbrains.kotlin.resolve.source.getPsi
import org.jetbrains.kotlin.synthetic.SyntheticJavaPropertyDescriptor

}

// Method returns the i'th method of named type t for 0 <= i < t.NumMethods().
//
// For an ordinary or instantiated type t, the receiver base type of this
// method is the named type t. For an uninstantiated generic type t, each
// method receiver is instantiated with its receiver type parameters.
//
// Methods are numbered deterministically: given the same list of source files

// special receiver type types.FakeRecvType().
func IsInterfaceMethod(f *Type) bool {
	return f.Recv().Type == FakeRecvType()
}

// IsMethodApplicable reports whether method m can be called on a
// value of type t. This is necessary because we compute a single
// method set for both T and *T, but some *T methods are not
// applicable to T receivers.