// 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

			prog.Inst[ix].Next = nil
			prog.Inst[ix] = onePassInst{Inst: instOriginal}
		}
	}
}

// onePassCopy creates a copy of the original Prog, as we'll be modifying it.
func onePassCopy(prog *syntax.Prog) *onePassProg {
	p := &onePassProg{
		Start:  prog.Start,
		NumCap: prog.NumCap,
		Inst:   make([]onePassInst, len(prog.Inst)),
	}
	for i, inst := range prog.Inst {
		p.Inst[i] = onePassInst{Inst: inst}
	}

	// at function entry, and it is ok to clobber registers.
	ZeroRange func(*objw.Progs, *obj.Prog, int64, int64, *uint32) *obj.Prog

	Ginsnop func(*objw.Progs) *obj.Prog

	// SSAMarkMoves marks any MOVXconst ops that need to avoid clobbering flags.
	SSAMarkMoves func(*State, *ssa.Block)

	// SSAGenValue emits Prog(s) for the Value.
	SSAGenValue func(*State, *ssa.Value)

}

void tcContext(void* parg) {
	struct cgoContextArg* arg = (struct cgoContextArg*)(parg);
	if (arg->context == 0) {
		arg->context = __sync_add_and_fetch(&contextCount, 1);
	} else {
		if (arg->context != __sync_add_and_fetch(&contextCount, 0)) {
			abort();
		}
		__sync_sub_and_fetch(&contextCount, 1);
	}
}

void tcContextSimple(void* parg) {

//
// The other fields not yet mentioned are for use by the back ends and should
// be left zeroed by creators of Prog lists.
type Prog struct {
	Ctxt     *Link     // linker context
	Link     *Prog     // next Prog in linked list
	From     Addr      // first source operand

// 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() {
}

		name                 string
		args                 []string
		prog                 string
		wantSecsRO           []string
		wantSecsROIfPresent  []string
		mustHaveBuildModePIE bool
		mustHaveCGO          bool
		mustInternalLink     bool
		wantDfBindNow        bool
		wantDf1Now           bool
		wantDf1Pie           bool
	}{
		{name: "default", prog: prog},
		{
			name:                 "pie-linkmode-internal",

// 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

// Prog generated.
func (ctxt *Link) EmitEntryLiveness(s *LSym, p *Prog, newprog ProgAlloc) *Prog {
	pcdata := ctxt.EmitEntryStackMap(s, p, newprog)
	pcdata = ctxt.EmitEntryUnsafePoint(s, pcdata, newprog)
	return pcdata
}

// Similar to EmitEntryLiveness, but just emit stack map.
func (ctxt *Link) EmitEntryStackMap(s *LSym, p *Prog, newprog ProgAlloc) *Prog {
	pcdata := Appendp(p, newprog)