}
	return &out
}

func hasConflict(root, leaf *networking.HTTPMatchRequest) bool {
	roots := []*networking.StringMatch{root.Uri, root.Scheme, root.Method, root.Authority}
	leaves := []*networking.StringMatch{leaf.Uri, leaf.Scheme, leaf.Method, leaf.Authority}
	for i := range roots {
		if stringMatchConflict(roots[i], leaves[i]) {
			return true
		}
	}
	// header conflicts

			certMap: map[string][]string{"foo.domain.com": {validRootCert}},
		},
		{
			name:    "Successful validation with multiple roots",
			certMap: map[string][]string{"foo.domain.com": {validRootCert, validRootCert2}},
		},
		{
			name: "Successful validation with multiple roots multiple mappings",
			certMap: map[string][]string{
				"foo.domain.com": {validRootCert, validRootCert2},
				"bar.domain.com": {validRootCert2},

# root of the module graph contains the package), whereas it is ambiguous in
# Go 1.16 (because two different modules contain plausible packages and Go 1.16
# does not privilege roots above other dependencies).
#
# However, the overall build list is identical for both versions.

cp go.mod go.mod.orig

! go mod tidy

	workloadTrustBundle *tb.TrustBundle
	certMu              sync.RWMutex
	istiodCert          *tls.Certificate

	// istiodCertBundleWatche provides callbacks when the Istiod certs or roots are changed.
	// The roots are used by the namespace controller to update Istiod roots and patch webhooks.
	// The certs are used to refresh Istiod credentials.
	istiodCertBundleWatcher *keycertbundle.Watcher
	server                  server.Instance

	// q is the queue of ODCLFUNC Nodes to visit in BFS order.
	var q ir.NameQueue

	for _, fn := range typecheck.Target.Funcs {
		symToFunc[fn.LSym] = fn

		// Make nowritebarrierrec functions BFS roots.
		if fn.Pragma&ir.Nowritebarrierrec != 0 {
			funcs[fn] = nowritebarrierrecCall{}
			q.PushRight(fn.Nname)
		}
		// Check go:nowritebarrier functions.
		if fn.Pragma&ir.Nowritebarrier != 0 && fn.WBPos.IsKnown() {

        fileSystemAccess.invalidate(ImmutableList.of(immutableLocation.getAbsolutePath()));
        String outputHashes = outputSnapshots.entrySet().stream()
            .map(entry -> entry.getKey() + ":\n" + entry.getValue().roots()
                .map(AssignImmutableWorkspaceStep::describeSnapshot)
                .collect(Collectors.joining("\n")))
            .collect(Collectors.joining("\n"));

        build("help", "--info").apply {
            assertNotOutput("is not supposed to be used along with regular Kotlin sources, and will be ignored in the future versions by default. (Use -Xallow-any-scripts-in-source-roots command line option to opt-in for the old behavior.)")
        }
    }

    @Test
    @Issue("https://github.com/gradle/gradle/issues/24481")
    fun `applied project scripts don't have project accessors`() {

go build -trimpath -o paths-a.exe paths
exec ./paths-a.exe paths-a.exe
stdout 'binary contains GOPATH: false'
stdout 'binary contains an empty GOROOT'

# Two binaries built from identical packages in different GOPATH roots
# should be identical.
env GOPATH=$WORK/b
go build -trimpath -o paths-b.exe paths
cmp -q paths-a.exe paths-b.exe


# Same sequence of tests but with gccgo.
# gccgo does not support builds in module mode.

    }

    List<BuildOperationRecord.Progress> progress(Class<?> clazz) {
        return all().collect { it.progress(clazz) }.flatten()
    }

    void walk(Action<? super BuildOperationRecord> action) {
        roots.each { walk(it, action) }
    }

    @SuppressWarnings("GrMethodMayBeStatic")
    void walk(BuildOperationRecord parent, Action<? super BuildOperationRecord> action) {

1. Any pointers from unmanaged memory to the heap must be garbage
   collection roots. More specifically, any pointer must either be
   accessible through a global variable or be added as an explicit
   garbage collection root in `runtime.markroot`.

2. If the memory is reused, the heap pointers must be zero-initialized
   before they become visible as GC roots. Otherwise, the GC may
   observe stale heap pointers. See "Zero-initialization versus