ADD	$-16,R9,R9

	MOVD	$32,R11		// set offsets to load into vector
	MOVD	$48,R12		// set offsets to load into vector

	PCALIGN	$16
cmp64_loop:
	LXVD2X	(R5)(R0),V3	// load bytes of A at offset 0 into vector
	LXVD2X	(R6)(R0),V4	// load bytes of B at offset 0 into vector
	VCMPEQUDCC	V3,V4,V1
	BGE	CR6,different	// jump out if its different

	LXVD2X	(R5)(R10),V3	// load bytes of A at offset 16 into vector

	}
	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)

			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
}

.hasClass(Wt)&&(e=$t),e},t._detectNavbar=function(){return 0<g(this._element).closest(".navbar").length},t._getOffset=function(){var e=this,t={};return"function"==typeof this._config.offset?t.fn=function(t){return t.offsets=l({},t.offsets,{},e._config.offset(t.offsets,e._element)||{}),t}:t.offset=this._config.offset,t},t._getPopperConfig=function(){var t={placement:this._getPlacement(),modifiers:{offset:this._getOffset(),flip:{enabled:this._config.flip},preventOverflow:{boundariesElement:this._c...

			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.

configuration and options\n * @argument {Number|String} options.offset=0\n * The offset value as described in the modifier description\n * @returns {Object} The data object, properly modified\n */\nexport default function offset(data, { offset }) {\n  const { placement, offsets: { popper, reference } } = data;\n  const basePlacement = placement.split('-')[0];\n\n  let offsets;\n  if (isNumeric(+offset)) {\n    offsets = [+offset, 0];\n  } else {\n    offsets = parseOffset(offset, popper, reference, basePlacement);\n...

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) {

	}

	return false
}

// overlap reports whether the ranges given by the given offset and
// size pairs overlap.
func overlap(offset1, size1, offset2, size2 int64) bool {
	if offset1 >= offset2 && offset2+size2 > offset1 {
		return true
	}
	if offset2 >= offset1 && offset1+size1 > offset2 {
		return true
	}
	return false
}

func (r loadCmdReader) ReadAt(offset int64, data interface{}) error {
	if _, err := r.f.Seek(r.offset+offset, 0); err != nil {
		return err
	}
	return binary.Read(r.f, r.order, data)
}

func (r loadCmdReader) WriteAt(offset int64, data interface{}) error {
	if _, err := r.f.Seek(r.offset+offset, 0); err != nil {
		return err
	}
	return binary.Write(r.f, r.order, data)
}