check.decl = d // new package-level var decl
		check.varDecl(obj, d.lhs, d.vtyp, d.init)
	case *TypeName:
		// invalid recursive types are detected via path
		check.typeDecl(obj, d.tdecl, def)
		check.collectMethods(obj) // methods can only be added to top-level types
	case *Func:
		// functions may be recursive - no need to track dependencies
		check.funcDecl(obj, d)
	default:
		panic("unreachable")
	}
}

        }

        override fun getAllTasks(recursive: Boolean): MutableMap<Project, MutableSet<Task>> {
            onAccess("allTasks")
            return delegate.getAllTasks(recursive)
        }

        override fun getTasksByName(name: String, recursive: Boolean): MutableSet<Task> {
            onAccess("tasksByName")
            return delegate.getTasksByName(name, recursive)
        }

		}
		assert(x.val != nil)
		x.mode = constant_

	case *TypeName:
		if !check.conf._EnableAlias && check.isBrokenAlias(obj) {
			check.errorf(e, InvalidDeclCycle, "invalid use of type alias %s in recursive type (see go.dev/issue/50729)", obj.name)
			return
		}
		x.mode = typexpr

	case *Var:
		// It's ok to mark non-local variables, but ignore variables

				return err
			}
		}

		return nil
	}

	prefix = retainSlash(prefix)

	for object := range clnt.ListObjects(cctx, bucket, minio.ListObjectsOptions{
		Prefix:    prefix,
		Recursive: false,
	}) {
		if object.Err != nil {
			return object.Err
		}

		if object.Key == prefix {
			continue
		}

		isDir := strings.HasSuffix(object.Key, SlashSeparator)

		}
		assert(x.val != nil)
		x.mode = constant_

	case *TypeName:
		if !check.conf.EnableAlias && check.isBrokenAlias(obj) {
			check.errorf(e, InvalidDeclCycle, "invalid use of type alias %s in recursive type (see go.dev/issue/50729)", obj.name)
			return
		}
		x.mode = typexpr

	case *Var:
		// It's ok to mark non-local variables, but ignore variables

		check.decl = d // new package-level var decl
		check.varDecl(obj, d.lhs, d.vtyp, d.init)
	case *TypeName:
		// invalid recursive types are detected via path
		check.typeDecl(obj, d.tdecl, def)
		check.collectMethods(obj) // methods can only be added to top-level types
	case *Func:
		// functions may be recursive - no need to track dependencies
		check.funcDecl(obj, d)
	default:
		panic("unreachable")
	}
}

	return !input.unmarshaled
}

// UnmarshalXML - decodes XML data.
func (input *InputSerialization) UnmarshalXML(d *xml.Decoder, start xml.StartElement) error {
	// Make subtype to avoid recursive UnmarshalXML().
	type subInputSerialization InputSerialization
	parsedInput := subInputSerialization{}
	if err := d.DecodeElement(&parsedInput, &start); err != nil {
		return errMalformedXML(err)
	}

        if (!hasStableName) {
            // Make sure we're not going to expand type argument over and over again.
            // If so, i.e., if there is a recursive type argument, return the current, non-null [type]
            // to prevent the following [substituteTypeOr*] from proceeding to its own (recursive) substitution.
            if (type.hasRecursiveTypeArgument()) return type

	// same in self-recursive calls:
	//
	//   func f[P constraint](x P) {
	//           f(x)
	//   }
	//
	// In this example, without type parameter renaming, the P used in the
	// instantiation f[P] has the same pointer identity as the P we are trying
	// to solve for through type inference. This causes problems for type
	// unification. Because any such self-recursive call is equivalent to

	ut := userType(rt)
	// If the type implements GobEncoder, we handle it without further processing.
	if ut.externalEnc != 0 {
		return gobEncodeOpFor(ut)
	}
	// If this type is already in progress, it's a recursive type (e.g. map[string]*T).
	// Return the pointer to the op we're already building.
	if opPtr := inProgress[rt]; opPtr != nil {
		return opPtr, ut.indir
	}
	typ := ut.base
	indir := ut.indir
	k := typ.Kind()