return string(b)
}

//go:wasmimport gojs syscall/js.valuePrepareString
func valuePrepareString(v ref) (ref, int)

// valueLoadString loads string data located at ref v into byte slice b.
//
// (noescape): This is safe because the byte slice is only used as a destination
//             for storing the string data and references to it are not maintained.
//
//go:wasmimport gojs syscall/js.valueLoadString
//go:noescape

	}
	if wi.Module == wasm.GojsModule {
		// Functions that are imported from the "gojs" module use a special
		// ABI that just accepts the stack pointer.
		// Example:
		//
		// 	//go:wasmimport gojs add
		// 	func importedAdd(a, b uint) uint
		//
		// will roughly become
		//
		// 	(import "gojs" "add" (func (param i32)))
		wi.Params = []obj.WasmField{{Type: obj.WasmI32}}
	} else {

	// in //go:wasmimport will cause the generated code to pass the stack pointer
	// directly to the imported function. In other words, any function that
	// uses the gojs module understands the internal Go WASM ABI directly.
	GojsModule = "gojs"
)

func instinit(ctxt *obj.Link) {
	morestack = ctxt.Lookup("runtime.morestack")
	morestackNoCtxt = ctxt.Lookup("runtime.morestack_noctxt")

			}

			const timeOrigin = Date.now() - performance.now();
			this.importObject = {
				_gotest: {
					add: (a, b) => a + b,
				},
				gojs: {
					// Go's SP does not change as long as no Go code is running. Some operations (e.g. calls, getters and setters)
					// may synchronously trigger a Go event handler. This makes Go code get executed in the middle of the imported

			case confVal.netGo:
				if netGoBuildTag {
					println("go package net: built with netgo build tag; using Go's DNS resolver")
				} else {
					println("go package net: GODEBUG setting forcing use of Go's resolver")
				}
			case !cgoAvailable:
				println("go package net: cgo resolver not supported; using Go's DNS resolver")
			case confVal.netCgo || confVal.preferCgo:
				println("go package net: using cgo DNS resolver")

	if goroot == "" {
		log.Fatalf("missing $GOROOT")
	}
	gohostos = runtime.GOOS
	gohostarch = runtime.GOARCH
	goos = os.Getenv("GOOS")
	if goos == "" {
		goos = gohostos
	}
	goarch = os.Getenv("GOARCH")
	if goarch == "" {
		goarch = gohostarch
	}
	goosUnderGoarch := goos + "_" + goarch
	goosDashGoarch := goos + "-" + goarch
	exe := ""
	if goos == "windows" {
		exe = ".exe"
	}

	} else if GOOS == "darwin" && GOARCH == "amd64" {
		t.Skipf("skipping on %s/%s: runtime does not permit SI_USER SIGSEGV", GOOS, GOARCH)
	}
	globalSkip(t)
	checkSignalForwardingTest(t)
	buildSignalForwardingTest(t)

	// We want to send the process a signal and see if it dies.
	// Normally the signal goes to the C thread, the Go signal

// when possible, a release tag like "go1.3".
func Version() string {
	return buildVersion
}

// GOOS is the running program's operating system target:
// one of darwin, freebsd, linux, and so on.
// To view possible combinations of GOOS and GOARCH, run "go tool dist list".
const GOOS string = goos.GOOS

// GOARCH is the running program's architecture target:
// one of 386, amd64, arm, s390x, and so on.

func TestCgoCallbackGC(t *testing.T) {
	t.Parallel()
	switch runtime.GOOS {
	case "plan9", "windows":
		t.Skipf("no pthreads on %s", runtime.GOOS)
	}
	if testing.Short() {
		switch {
		case runtime.GOOS == "dragonfly":
			t.Skip("see golang.org/issue/11990")
		case runtime.GOOS == "linux" && runtime.GOARCH == "arm":
			t.Skip("too slow for arm builders")
		case runtime.GOOS == "linux" && (runtime.GOARCH == "mips64" || runtime.GOARCH == "mips64le"):

	}
}

func TestIsWindowsUNCPath(t *testing.T) {
	tests := []struct {
		goos      string
		path      string
		isUNCPath bool
	}{
		{
			goos:      "linux",
			path:      `/usr/bin`,
			isUNCPath: false,
		},
		{
			goos:      "linux",
			path:      `\\.\pipe\foo`,
			isUNCPath: false,
		},
		{
			goos:      "windows",
			path:      `C:\foo`,
			isUNCPath: false,
		},
		{