if c.cursym.Func().Text.Mark&LEAF != 0 {
				c.cursym.Set(obj.AttrLeaf, true)
				if p.From.Sym.NoFrame() {
					break
				}
			}

			if !p.From.Sym.NoSplit() {
				p = c.stacksplit(p, autosize) // emit split check
			}

			q = p

			if autosize != 0 {
				// Make sure to save link register for non-empty frame, even if
				// it is a leaf function, so that traceback works.

			if cursym.Func().Text.Mark&LEAF != 0 {
				cursym.Set(obj.AttrLeaf, true)
				if p.From.Sym.NoFrame() {
					break
				}
			}

			if !p.From.Sym.NoSplit() {
				p = c.stacksplit(p, autosize) // emit split check
			}

			// MOVW.W		R14,$-autosize(SP)
			p = obj.Appendp(p, c.newprog)

			p.As = AMOVW
			p.Scond |= C_WBIT
			p.From.Type = obj.TYPE_REG
			p.From.Reg = REGLINK

	ASBC:   true,
	ASBCW:  true,
	ASBCS:  true,
	ASBCSW: true,
	AADC:   true,
	AADCW:  true,
	AADCS:  true,
	AADCSW: true,
	AFMOVD: true,
	AFMOVS: true,
	AMSR:   true,
}

func (c *ctxt7) stacksplit(p *obj.Prog, framesize int32) *obj.Prog {
	if c.ctxt.Flag_maymorestack != "" {
		p = c.cursym.Func().SpillRegisterArgs(p, c.newprog)

		// Save LR and make room for FP, REGCTXT. Leave room
		// for caller's saved FP.

			if c.cursym.Func().Text.Mark&LEAF != 0 {
				c.cursym.Set(obj.AttrLeaf, true)
				if p.From.Sym.NoFrame() {
					break
				}
			}

			if !p.From.Sym.NoSplit() {
				p = c.stacksplit(p, autosize) // emit split check
			}

			q = p

			if autosize != 0 {
				// Make sure to save link register for non-empty frame, even if
				// it is a leaf function, so that traceback works.

				rel.Off = 0
				rel.Siz = 8
				rel.Sym = c.ctxt.Lookup(".TOC.")
				rel.Type = objabi.R_ADDRPOWER_PCREL
			}

			if !c.cursym.Func().Text.From.Sym.NoSplit() {
				q = c.stacksplit(q, autosize) // emit split check
			}

			if autosize != 0 {
				var prologueEnd *obj.Prog
				// Save the link register and update the SP.  MOVDU is used unless

	} else {
		regEntryTmp0, regEntryTmp1 = REG_BX, REG_DI
	}

	var regg int16
	if !p.From.Sym.NoSplit() {
		// Emit split check and load G register
		p, regg = stacksplit(ctxt, cursym, p, newprog, autoffset, int32(textarg))
	} else if p.From.Sym.Wrapper() {
		// Load G register for the wrapper code
		p, regg = loadG(ctxt, cursym, p, newprog)
	}

	if bpsize > 0 {

	}

	cursym.Func().Args = text.To.Val.(int32)
	cursym.Func().Locals = int32(stacksize)

	prologue := text

	if !cursym.Func().Text.From.Sym.NoSplit() {
		prologue = stacksplit(ctxt, prologue, cursym, newprog, stacksize) // emit split check
	}

	if stacksize != 0 {
		prologue = ctxt.StartUnsafePoint(prologue, newprog)

		// Actually save LR.

	// 4,6,9,10, the Places entry for X will contain [S,4].
	Places []StackSlot

	// Combined count of stacks where this source is the leaf.
	Self int64

	// Color number to use for this source.
	// Colors with high numbers than supported may be treated as zero.
	Color int
}

// StackSlot identifies a particular StackSlot.
type StackSlot struct {
	Stack int // Index in StackSet.Stacks
	Pos   int // Index in Stack.Sources

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

package objabi

import (
	"internal/abi"
	"internal/buildcfg"
)

func StackNosplit(race bool) int {
	// This arithmetic must match that in runtime/stack.go:stackNosplit.
	return abi.StackNosplitBase * stackGuardMultiplier(race)
}

// stackGuardMultiplier returns a multiplier to apply to the default

	fixedStack5 = fixedStack4 | (fixedStack4 >> 8)
	fixedStack6 = fixedStack5 | (fixedStack5 >> 16)
	fixedStack  = fixedStack6 + 1

	// stackNosplit is the maximum number of bytes that a chain of NOSPLIT
	// functions can use.
	// This arithmetic must match that in cmd/internal/objabi/stack.go:StackNosplit.
	stackNosplit = abi.StackNosplitBase * sys.StackGuardMultiplier

	// The stack guard is a pointer this many bytes above the
	// bottom of the stack.