</p>

<pre>
func apply[S ~[]E, E any](s S, f func(E) E) S { … }

f0 := apply[]                  // illegal: type argument list cannot be empty
f1 := apply[[]int]             // type argument for S explicitly provided, type argument for E inferred
f2 := apply[[]string, string]  // both type arguments explicitly provided

var bytes []byte

		// Compute number of replacements.
		m = Count(s, old)
	}
	if m == 0 {
		// Just return a copy.
		return append([]byte(nil), s...)
	}
	if n < 0 || m < n {
		n = m
	}

	// Apply replacements to buffer.
	t := make([]byte, len(s)+n*(len(new)-len(old)))
	w := 0
	start := 0
	for i := 0; i < n; i++ {
		j := start
		if len(old) == 0 {
			if i > 0 {

		appID, err := plistExtract(fname, "Entitlements:application-identifier")
		check(err)
		fmt.Printf("export GOIOS_APP_ID=%s\n", appID)

		teamID, err := plistExtract(fname, "Entitlements:com.apple.developer.team-identifier")
		check(err)
		fmt.Printf("export GOIOS_TEAM_ID=%s\n", teamID)
	}
}

func detectMobileProvisionFiles(udids [][]byte) []string {
	cmd := exec.Command("mdfind", "-name", ".mobileprovision")

pkg syscall (darwin-386), const CSUSP = 26
pkg syscall (darwin-386), const CSUSP ideal-int
pkg syscall (darwin-386), const CTL_MAXNAME = 12
pkg syscall (darwin-386), const CTL_NET = 4
pkg syscall (darwin-386), const DLT_APPLE_IP_OVER_IEEE1394 = 138
pkg syscall (darwin-386), const DLT_ARCNET = 7
pkg syscall (darwin-386), const DLT_ATM_CLIP = 19
pkg syscall (darwin-386), const DLT_ATM_RFC1483 = 11
pkg syscall (darwin-386), const DLT_AX25 = 3

	for typ, def := range typedef {
		if new := override[typ]; new != "" {
			if id, ok := def.Go.(*ast.Ident); ok {
				override[id.Name] = new
			}
		}
	}

	// Apply overrides.
	for old, new := range override {
		if id := goIdent[old]; id != nil {
			id.Name = new
		}
	}

	// Any names still using the _C syntax are not going to compile,

						sp >>>= 0;
						try {
							const v = loadValue(sp + 8);
							const m = Reflect.get(v, loadString(sp + 16));
							const args = loadSliceOfValues(sp + 32);
							const result = Reflect.apply(m, v, args);
							sp = this._inst.exports.getsp() >>> 0; // see comment above
							storeValue(sp + 56, result);
							this.mem.setUint8(sp + 64, 1);
						} catch (err) {

pkg syscall (freebsd-386-cgo), const DLT_A653_ICM ideal-int
pkg syscall (freebsd-386-cgo), const DLT_AIRONET_HEADER ideal-int
pkg syscall (freebsd-386-cgo), const DLT_AOS ideal-int
pkg syscall (freebsd-386-cgo), const DLT_APPLE_IP_OVER_IEEE1394 ideal-int
pkg syscall (freebsd-386-cgo), const DLT_ARCNET ideal-int
pkg syscall (freebsd-386-cgo), const DLT_ARCNET_LINUX ideal-int
pkg syscall (freebsd-386-cgo), const DLT_ATM_CLIP ideal-int

The current document provides a summary of the syntax and the differences with
what is explained in that document, and
describes the peculiarities that apply when writing assembly code to interact with Go.
</p>

<p>
The most important thing to know about Go's assembler is that it is not a direct representation of the underlying machine.

<p>
Arithmetic operators apply to numeric values and yield a result of the same
type as the first operand. The four standard arithmetic operators (<code>+</code>,
<code>-</code>, <code>*</code>, <code>/</code>) apply to integer,
floating-point, and complex types; <code>+</code> also applies to strings.
The bitwise logical and shift operators apply to integers only.
</p>

<pre class="grammar">

	// so we use ast1 to look for the doc comments on import "C"
	// and on exported functions, and we use ast2 for translating
	// and reprinting.
	// In cgo mode, we ignore ast2 and just apply edits directly
	// the text behind ast1. In godefs mode we modify and print ast2.
	ast1 := parse(abspath, src, parser.SkipObjectResolution|parser.ParseComments)
	ast2 := parse(abspath, src, parser.SkipObjectResolution)