tion` is deprecated, use `modifier.fn`!');var i=t['function']||t.fn;t.enabled&&e(i)&&(o.offsets.popper=c(o.offsets.popper),o.offsets.reference=c(o.offsets.reference),o=i(o,t))}),o}function N(){if(!this.state.isDestroyed){var e={instance:this,styles:{},arrowStyles:{},attributes:{},flipped:!1,offsets:{}};e.offsets.reference=O(this.state,this.popper,this.reference),e.placement=v(this.options.placement,e.offsets.reference,this.popper,this.reference,this.options.modifiers.flip.boundariesElement,this....

	if et == types.TINT64 {
		tHi = x.typs.Int32
	}
	tLo = x.typs.UInt32
	return
}

// offsetFrom creates an offset from a pointer, simplifying chained offsets and offsets from SP
func (x *expandState) offsetFrom(b *Block, from *Value, offset int64, pt *types.Type) *Value {
	ft := from.Type
	if offset == 0 {
		if ft == pt {
			return from
		}

// and treat the offset as an identifier. We use negative offsets that
// do not overlap with any compile-time module offsets.
//
// Entries are created by reflect.addReflectOff.
var reflectOffs struct {
	lock mutex
	next int32
	m    map[int32]unsafe.Pointer
	minv map[unsafe.Pointer]int32
}

func reflectOffsLock() {
	lock(&reflectOffs.lock)
	if raceenabled {

	}

	// To generate random offset/length.
	r := rand.New(rand.NewSource(UTCNow().UnixNano()))

	buf := &bytes.Buffer{}

	// Verify erasure.Decode() for random offsets and lengths.
	for i := 0; i < iterations; i++ {
		offset := r.Int63n(length)
		readLen := r.Int63n(length - offset)

		expected := data[offset : offset+readLen]

		// Get the checksums of the current part.

	return int(r.h.Offsets[BlkHashed64def+1]-r.h.Offsets[BlkHashed64def]) / SymSize
}

func (r *Reader) NHasheddef() int {
	return int(r.h.Offsets[BlkHasheddef+1]-r.h.Offsets[BlkHasheddef]) / SymSize
}

func (r *Reader) NNonpkgdef() int {
	return int(r.h.Offsets[BlkNonpkgdef+1]-r.h.Offsets[BlkNonpkgdef]) / SymSize
}

func (r *Reader) NNonpkgref() int {

			vars:        make(map[string]*asmVar),
			varByOffset: make(map[int]*asmVar),
		}
		offset = 0
		addParams(decl.Type.Params.List, false)
		if decl.Type.Results != nil && len(decl.Type.Results.List) > 0 {
			offset += -offset & (arch.maxAlign - 1)
			addParams(decl.Type.Results.List, true)
		}
		fn.size = offset
		m[arch.name] = fn
	}

	return m
}

	}
	for i, m := range methods {
		m.Offset = int64(i) * int64(PtrSize)
	}

	t.SetAllMethods(methods)
}

// calcStructOffset computes the offsets of a sequence of fields,
// starting at the given offset. It returns the resulting offset and
// maximum field alignment.
func calcStructOffset(t *Type, fields []*Field, offset int64) int64 {
	for _, f := range fields {
		CalcSize(f.Type)

			r.repeatedOffset2 = r.repeatedOffset1
			r.repeatedOffset1 = offset
		} else {
			if literal == 0 {
				offset++
			}
			switch offset {
			case 1:
				offset = r.repeatedOffset1
			case 2:
				offset = r.repeatedOffset2
				r.repeatedOffset2 = r.repeatedOffset1
				r.repeatedOffset1 = offset
			case 3:
				offset = r.repeatedOffset3
				r.repeatedOffset3 = r.repeatedOffset2

		}
		// Write the offset
		offset := t.offset()
		offsetCode := offsetCode(offset)
		w.writeCode(oeCodes[offsetCode])
		extraOffsetBits := uint(offsetExtraBits[offsetCode])
		if extraOffsetBits > 0 {
			extraOffset := int32(offset - offsetBase[offsetCode])
			w.writeBits(extraOffset, extraOffsetBits)
		}
	}
}

// huffOffset is a static offset encoder used for huffman only encoding.

func (state *pclntab) generatePctab(ctxt *Link, funcs []loader.Sym) {
	ldr := ctxt.loader

	// Pctab offsets of 0 are considered invalid in the runtime. We respect
	// that by just padding a single byte at the beginning of runtime.pctab,
	// that way no real offsets can be zero.
	size := int64(1)

	// Walk the functions, finding offset to store each pcdata.
	seen := make(map[loader.Sym]struct{})
	saveOffset := func(pcSym loader.Sym) {