}
}

// stacksplitPre generates the function stack check prologue following
// Prog p (which should be the TEXT Prog). It returns one or two
// branch Progs that must be patched to jump to the morestack epilogue,
// and the Prog that starts the morestack check.
func (c *ctxtz) stacksplitPre(p *obj.Prog, framesize int32) (pPre, pPreempt, pCheck *obj.Prog) {
	if c.ctxt.Flag_maymorestack != "" {
		// Save LR and REGCTXT
		const frameSize = 16

				// lowering, or unnamed params ("_").
				v.ChildIndex = int32(synthCount)
				synthCount++
			}
		}
	}

	// Make a second pass through the progs to compute PC ranges for
	// the various inlined calls.
	start := int64(-1)
	curii := -1
	var prevp *obj.Prog
	for p := fnsym.Func().Text; p != nil; prevp, p = p, p.Link {
		if prevp != nil && p.Pos == prevp.Pos {
			continue
		}
		ii := posInlIndex(p.Pos)

	"float64",
}

func main() {
	var prog bytes.Buffer
	fmt.Fprintf(&prog, "package main\n\n")
	fmt.Fprintf(&prog, "import ( \"fmt\"; \"math\" )\n")
	for _, t1 := range types {
		for _, t2 := range types {
			fmt.Fprintf(&prog, "func %[1]s_to_%[2]s(x %[1]s) %[2]s { return %[2]s(x) }\n", t1, t2)
		}
	}

	var outputs []string
	var exprs []string

	fmt.Fprintf(&prog, "var (\n")
	for _, t1 := range types {

				prog.Reg = p.getRegister(prog, op, &a[2])
				prog.To = a[3]
				break
			}
			if arch.IsARMMULA(op) {
				// All must be registers.
				p.getRegister(prog, op, &a[0])
				r1 := p.getRegister(prog, op, &a[1])
				r2 := p.getRegister(prog, op, &a[2])
				p.getRegister(prog, op, &a[3])
				prog.From = a[0]
				prog.To = a[3]
				prog.To.Type = obj.TYPE_REGREG2
				prog.To.Offset = int64(r2)
				prog.Reg = r1
				break

		// CPU faults upon signed overflow, which occurs when most
		// negative int is divided by -1.
		var j *obj.Prog
		if v.Op == ssa.OpS390XDIVD || v.Op == ssa.OpS390XDIVW ||
			v.Op == ssa.OpS390XMODD || v.Op == ssa.OpS390XMODW {

			var c *obj.Prog
			c = s.Prog(s390x.ACMP)
			j = s.Prog(s390x.ABEQ)

			c.From.Type = obj.TYPE_REG
			c.From.Reg = divisor
			c.To.Type = obj.TYPE_CONST
			c.To.Offset = -1

// Test source file beginning with a byte order mark.

package main

import (
	"fmt"
	"strings"
)

func main() {
	prog = strings.Replace(prog, "BOM", "\uFEFF", -1)
	fmt.Print(prog)
}

var prog = `BOM
package main

func main() {
}

// the backtracker using prog.
func maxBitStateLen(prog *syntax.Prog) int {
	if !shouldBacktrack(prog) {
		return 0
	}
	return maxBacktrackVector / len(prog.Inst)
}

// shouldBacktrack reports whether the program is too
// long for the backtracker to run.
func shouldBacktrack(prog *syntax.Prog) bool {
	return len(prog.Inst) <= maxBacktrackProg
}

fi

exec="$FESS_HOME/bin/fess"
prog="fess"
pidfile="$PID_DIR/${prog}.pid"

export FESS_TEMP_PATH
export FESS_LOG_PATH
export FESS_CONF_PATH
export FESS_VAR_PATH
export FESS_DICTIONARY_PATH
export FESS_HEAP_SIZE
export SEARCH_ENGINE_HOME
export SEARCH_ENGINE_HTTP_URL
export FESS_JAVA_OPTS
export JAVA_HOME

lockfile=/var/lock/subsys/$prog

// Test source files and strings containing \r and \r\n.

package main

import (
	"fmt"
	"strings"
)

func main() {
	prog = strings.Replace(prog, "BQ", "`", -1)
	prog = strings.Replace(prog, "CR", "\r", -1)
	fmt.Print(prog)
}

var prog = `
package main
CR

import "fmt"

var CR s = "hello\n" + CR
	" world"CR

var t = BQhelloCR
 worldBQ

var u = BQhCReCRlCRlCRoCR

	//
	// Unfortunately, it provides no means of escaping interior quotation marks
	// within that program name, and we have no way to report them here.
	prog := args[0]
	mustQuote := len(prog) == 0
	for i := 0; i < len(prog); i++ {
		c := prog[i]
		if c <= ' ' || (c == '"' && i == 0) {
			// Force quotes for not only the ASCII space and tab as described in the
			// MSDN article, but also ASCII control characters.