Acrs                     [16]uint32
	Orig_gpr2                uint64
	Fp_regs                  PtraceFpregs
	Per_info                 PtracePer
	Ieee_instruction_pointer uint64
}

type PtracePsw struct {
	Mask uint64
	Addr uint64
}

type PtraceFpregs struct {
	Fpc  uint32
	Fprs [16]float64
}

type PtracePer struct {
	Control_regs  [3]uint64
	_             [8]byte
	Starting_addr uint64

TEXT ·Or8(SB), NOSPLIT, $0-9
	MOVD	ptr+0(FP), R3
	MOVBZ	val+8(FP), R4
	// We don't have atomic operations that work on individual bytes so we
	// need to align addr down to a word boundary and create a mask
	// containing v to OR with the entire word atomically.
	MOVD	$(3<<3), R5
	RXSBG	$59, $60, $3, R3, R5 // R5 = 24 - ((addr % 4) * 8) = ((addr & 3) << 3) ^ (3 << 3)
	ANDW	$~3, R3              // R3 = floor(addr, 4) = addr &^ 3

	REG_CR5LT
	REG_CR5GT
	REG_CR5EQ
	REG_CR5SO
	REG_CR6LT
	REG_CR6GT
	REG_CR6EQ
	REG_CR6SO
	REG_CR7LT
	REG_CR7GT
	REG_CR7EQ
	REG_CR7SO

	/* Align FPR and VSR vectors such that when masked with 0x3F they produce
	   an equivalent VSX register. */
	/* F0=4160 ... F31=4191 */
	REG_F0
	REG_F1
	REG_F2
	REG_F3
	REG_F4
	REG_F5
	REG_F6
	REG_F7
	REG_F8
	REG_F9
	REG_F10

turn t==="-webkit-"&&(r=r.replace("border","box-image")),r}};wl.names=["mask-border","mask-border-source","mask-border-slice","mask-border-width","mask-border-outset","mask-border-repeat","mask-box-image","mask-box-image-source","mask-box-image-slice","mask-box-image-width","mask-box-image-outset","mask-box-image-repeat"];ly.exports=wl});var cy=v((U4,fy)=>{l();var UA=M(),Ne=class extends UA{insert(e,t,r){let n=e.prop==="mask-composite",a;n?a=e.value.split(","):a=e.value.match(Ne.regexp)||[],a=a....

// from stopped via the core dump bit.

const (
	mask    = 0x7F
	core    = 0x80
	exited  = 0x00
	stopped = 0x7F
	shift   = 8
)

func (w WaitStatus) Exited() bool { return w&mask == exited }

func (w WaitStatus) Signaled() bool { return w&mask != stopped && w&mask != exited }

func (w WaitStatus) Stopped() bool { return w&0xFF == stopped }

  optional string apiVersion = 2;

  // Name of the referent.
  // +optional
  optional string name = 3;

  // UID of the referent.
  // +optional
  optional string uID = 4;
}

// ExtraValue masks the value so protobuf can generate
// +protobuf.nullable=true
// +protobuf.options.(gogoproto.goproto_stringer)=false
message ExtraValue {
  // items, if empty, will result in an empty slice

  repeated string items = 1;

		lens := gcmLengths(0, uint64(len(nonce))*8)
		g.paddedGHASH(&hash, lens[:])
		copy(counter[:], hash[:])
	}
	return counter
}

// auth calculates GHASH(ciphertext, additionalData), masks the result with
// tagMask and writes the result to out.
func (g *gcmAsm) auth(out, ciphertext, additionalData []byte, tagMask *[gcmTagSize]byte) {
	var hash [16]byte
	g.paddedGHASH(&hash, additionalData)

  //     -----BEGIN CERTIFICATE-----
  //     ...
  //     -----END CERTIFICATE-----
  //     )
  //
  // +listType=atomic
  // +optional
  optional bytes certificate = 2;
}

// ExtraValue masks the value so protobuf can generate
// +protobuf.nullable=true
// +protobuf.options.(gogoproto.goproto_stringer)=false
message ExtraValue {
  // items, if empty, will result in an empty slice

		data = data[siz:]
	}
	if len(data) > 0 {
		var s [16]byte
		copy(s[:], data)
		gcmHash(hash[:], &g.productTable, s[:], len(s))
	}
}

// auth calculates GHASH(ciphertext, additionalData), masks the result with
// tagMask and writes the result to out.
func (g *gcmAsm) auth(out, ciphertext, aad []byte, tagMask *[gcmTagSize]byte) {
	var hash [16]byte
	g.paddedGHASH(&hash, aad)
	g.paddedGHASH(&hash, ciphertext)

  // If request was approved, the controller will place the issued certificate here.
  // +listType=atomic
  // +optional
  optional bytes certificate = 2;
}

// ExtraValue masks the value so protobuf can generate
// +protobuf.nullable=true
// +protobuf.options.(gogoproto.goproto_stringer)=false
message ExtraValue {
  // items, if empty, will result in an empty slice