// find the memory before the WB stores
		mem := stores[0].MemoryArg()
		pos := stores[0].Pos

		// If the source of a MoveWB is volatile (will be clobbered by a
		// function call), we need to copy it to a temporary location, as
		// marshaling the args of wbMove might clobber the value we're
		// trying to move.
		// Look for volatile source, copy it to temporary before we check
		// the write barrier flag.

move0to3:
	CMPBEQ	R5, $0, done
move1:
	CMPBNE	R5, $1, move2
	MOVB	0(R4), R3
	MOVB	R3, 0(R6)
	RET
move2:
	CMPBNE	R5, $2, move3
	MOVH	0(R4), R3
	MOVH	R3, 0(R6)
	RET
move3:
	MOVH	0(R4), R3
	MOVB	2(R4), R7
	MOVH	R3, 0(R6)
	MOVB	R7, 2(R6)
	RET

move4to7:
	CMPBNE	R5, $4, move5
	MOVW	0(R4), R3
	MOVW	R3, 0(R6)
	RET
move5:
	CMPBNE	R5, $5, move6
	MOVW	0(R4), R3
	MOVB	4(R4), R7

	// Normally we require that the source and destination of Move do not overlap.
	// There is an exception when we know all the loads will happen before all
	// the stores. In that case, overlap is ok. See
	// memmove inlining in generic.rules. When inlineablememmovesize (in ../rewrite.go)
	// returns true, we must do all loads before all stores, when lowering Move.
	// The type of Move is used for the write barrier pass to insert write barriers

	// into registers lets us ignore copy direction).
tail:
	// BSR+branch table make almost all memmove/memclr benchmarks worse. Not worth doing.
	TESTL	BX, BX
	JEQ	move_0
	CMPL	BX, $2
	JBE	move_1or2
	CMPL	BX, $4
	JB	move_3
	JE	move_4
	CMPL	BX, $8
	JBE	move_5through8
	CMPL	BX, $16
	JBE	move_9through16
#ifdef GO386_softfloat
	JMP	nosse2
#endif
	CMPL	BX, $32
	JBE	move_17through32
	CMPL	BX, $64

	// with some straightline code. The REP MOVSQ instruction is really fast
	// for large sizes. The cutover is approximately 1K.
tail:
	TESTQ	BX, BX
	JEQ	move_0
	CMPQ	BX, $2
	JBE	move_1or2
	CMPQ	BX, $4
	JBE	move_3or4
	CMPQ	BX, $8
	JB	move_5through7
	JE	move_8
	CMPQ	BX, $16
	JBE	move_9through16

/*
 * check and set for backwards
 */
	CMPQ	SI, DI
	JLS	back

/*
 * forward copy loop
 */

	// direction is forward.
	//
	// BSR+branch table make almost all memmove/memclr benchmarks worse. Not worth doing.
	TESTQ	BX, BX
	JEQ	move_0
	CMPQ	BX, $2
	JBE	move_1or2
	CMPQ	BX, $4
	JB	move_3
	JBE	move_4
	CMPQ	BX, $8
	JB	move_5through7
	JE	move_8
	CMPQ	BX, $16
	JBE	move_9through16
	CMPQ	BX, $32
	JBE	move_17through32
	CMPQ	BX, $64
	JBE	move_33through64
	CMPQ	BX, $128
	JBE	move_65through128

	// with some straightline code. The REP MOVSL instruction is really fast
	// for large sizes. The cutover is approximately 1K.
tail:
	TESTL	BX, BX
	JEQ	move_0
	CMPL	BX, $2
	JBE	move_1or2
	CMPL	BX, $4
	JB	move_3
	JE	move_4
	CMPL	BX, $8
	JBE	move_5through8
	CMPL	BX, $16
	JBE	move_9through16

/*
 * check and set for backwards
 */
	CMPL	SI, DI
	JLS	back

/*

		}
	}
}

// moveTo moves v to dst, adjusting the appropriate Block.Values slices.
// The caller is responsible for ensuring that this is safe.
// i is the index of v in v.Block.Values.
func (v *Value) moveTo(dst *Block, i int) {
	if dst.Func.scheduled {
		v.Fatalf("moveTo after scheduling")
	}
	src := v.Block
	if src.Values[i] != v {
		v.Fatalf("moveTo bad index %d", v, i)
	}
	if src == dst {

    /**
     * Moves the cursor up. If the parameter y is negative it moves the cursor down.
     *
     * @param y the number of lines to move up
     * @return this Ansi instance
     */
    public Ansi cursorUp(final int y) {
        return y > 0 ? appendEscapeSequence('A', y) : y < 0 ? cursorDown(-y) : this;
    }

    /**
     * Moves the cursor down. If the parameter y is negative it moves the cursor up.
     *

				}
				if mem := v.MemoryArg(); mem != nil {
					if startMem[t.ID] != mem {
						// We can't move a value with a memory arg unless the target block
						// has that memory arg as its starting memory.
						continue
					}
				}
				if f.pass.debug > 0 {
					b.Func.Warnl(v.Pos, "%v is moved", v.Op)
				}
				// Move v to the block which dominates its uses.
				t.Values = append(t.Values, v)
				v.Block = t