pkg syscall (darwin-arm64), const DLT_LINUX_SLL = 113
pkg syscall (darwin-arm64), const DLT_LINUX_SLL ideal-int
pkg syscall (darwin-arm64), const DLT_LOOP = 108
pkg syscall (darwin-arm64), const DLT_LOOP ideal-int
pkg syscall (darwin-arm64), const DLT_NULL = 0
pkg syscall (darwin-arm64), const DLT_NULL ideal-int
pkg syscall (darwin-arm64), const DLT_PFLOG = 117

pkg syscall (freebsd-arm64), const DLT_LINUX_SLL = 113
pkg syscall (freebsd-arm64), const DLT_LINUX_SLL ideal-int
pkg syscall (freebsd-arm64), const DLT_LOOP = 108
pkg syscall (freebsd-arm64), const DLT_LOOP ideal-int
pkg syscall (freebsd-arm64), const DLT_LTALK = 114
pkg syscall (freebsd-arm64), const DLT_LTALK ideal-int
pkg syscall (freebsd-arm64), const DLT_MATCHING_MAX = 246

	if len(names) == 0 {
		return needType
	}

	// Coerce gcc into telling us whether each name is a type, a value, or undeclared.
	// For names, find out whether they are integer constants.
	// We used to look at specific warning or error messages here, but that tied the
	// behavior too closely to specific versions of the compilers.
	// Instead, arrange that we can infer what we need from only the presence or absence

pkg debug/elf, const STB_LOCAL SymBind
pkg debug/elf, const STB_LOOS SymBind
pkg debug/elf, const STB_LOPROC SymBind
pkg debug/elf, const STB_WEAK SymBind
pkg debug/elf, const STT_COMMON SymType
pkg debug/elf, const STT_FILE SymType
pkg debug/elf, const STT_FUNC SymType
pkg debug/elf, const STT_HIOS SymType
pkg debug/elf, const STT_HIPROC SymType
pkg debug/elf, const STT_LOOS SymType
pkg debug/elf, const STT_LOPROC SymType

	// already have the sizes from the central directory so we can
	// just ignore these.

	return nil
}

func readDirectoryEnd(r io.ReaderAt, size int64) (dir *directoryEnd, baseOffset int64, err error) {
	// look for directoryEndSignature in the last 1k, then in the last 65k
	var buf []byte
	var directoryEndOffset int64
	for i, bLen := range []int64{1024, 65 * 1024} {
		if bLen > size {
			bLen = size
		}

</p>

<p>
The assembler program is a way to parse a description of that
semi-abstract instruction set and turn it into instructions to be
input to the linker.
If you want to see what the instructions look like in assembly for a given architecture, say amd64, there
are many examples in the sources of the standard library, in packages such as
<a href="/pkg/runtime/"><code>runtime</code></a> and

	case "s390x":
		return archS390x()
	case "wasm":
		return archWasm()
	}
	return nil
}

func jumpX86(word string) bool {
	return word[0] == 'J' || word == "CALL" || strings.HasPrefix(word, "LOOP") || word == "XBEGIN"
}

func jumpRISCV(word string) bool {
	switch word {
	case "BEQ", "BEQZ", "BGE", "BGEU", "BGEZ", "BGT", "BGTU", "BGTZ", "BLE", "BLEU", "BLEZ",

pkg syscall (freebsd-riscv64), const DLT_LINUX_SLL = 113 #53466
pkg syscall (freebsd-riscv64), const DLT_LINUX_SLL ideal-int #53466
pkg syscall (freebsd-riscv64), const DLT_LOOP = 108 #53466
pkg syscall (freebsd-riscv64), const DLT_LOOP ideal-int #53466
pkg syscall (freebsd-riscv64), const DLT_LTALK = 114 #53466
pkg syscall (freebsd-riscv64), const DLT_LTALK ideal-int #53466
pkg syscall (freebsd-riscv64), const DLT_MATCHING_MAX = 246

		// Macro has arguments. Scan list of formals.
		acceptArg := true
		args = []string{} // Zero length but not nil.
	Loop:
		for {
			tok = in.Stack.Next()
			switch tok {
			case ')':
				tok = in.Stack.Next() // First token of macro definition.
				break Loop
			case ',':
				if acceptArg {
					in.Error("bad syntax in definition for macro:", name)
				}
				acceptArg = true

// LTYPEX spec9	{ outcode($1, &$2); }
	PINSRW	$4, AX, X2
	PINSRW	$4, foo+4(SB), X2

// LTYPERT spec10	{ outcode($1, &$2); }
	JCS	2(PC)
	RETFL	$4

// Was bug: LOOP is a branch instruction.
	JCS	2(PC)
loop:
	LOOP	loop // LOOP

	// Intel pseudonyms for our own renamings.
	PADDD	M2, M1 // PADDL M2, M1
	MOVDQ2Q	X1, M1 // MOVQ X1, M1
	MOVNTDQ	X1, (AX)	// MOVNTO X1, (AX)
	MOVOA	(AX), X1	// MOVO (AX), X1