// Modify the sign bit
	{name: "Abs", argLength: 1},      // absolute value arg0
	{name: "Copysign", argLength: 2}, // copy sign from arg0 to arg1

	// Float min/max implementation, if hardware is available.
	{name: "Min64F", argLength: 2}, // min(arg0,arg1)
	{name: "Min32F", argLength: 2}, // min(arg0,arg1)
	{name: "Max64F", argLength: 2}, // max(arg0,arg1)
	{name: "Max32F", argLength: 2}, // max(arg0,arg1)

				//	ADD	$FIXED_FRAME, R3, R24
				//	MOV	R24, panic_argp(R20)
				// end:
				//	NOP
				//
				// The NOP is needed to give the jumps somewhere to land.
				// It is a liblink NOP, not a hardware NOP: it encodes to 0 instruction bytes.
				//
				// We don't generate this for leafs because that means the wrapped
				// function was inlined into the wrapper.

				q = obj.Appendp(q, newprog)

		return errors.New("resetting expired timer returned true")
	}
	return nil
}

func TestReset(t *testing.T) {
	// We try to run this test with increasingly larger multiples
	// until one works so slow, loaded hardware isn't as flaky,
	// but without slowing down fast machines unnecessarily.
	//
	// (maxDuration is several orders of magnitude longer than we
	// expect this test to actually take on a fast, unloaded machine.)

// With OpenBSD 6.7 onwards, an armv7 syscall returns two instructions
// after the SWI instruction, to allow for a speculative execution
// barrier to be placed after the SWI without impacting performance.
// For now use hardware no-ops as this works with both older and newer
// kernels. After OpenBSD 6.8 is released this should be changed to
// speculation barriers.
#define NOOP	MOVW    R0, R0
#define	INVOKE_SYSCALL	\
	SWI	$0;	\
	NOOP;		\

  //
  //    attributes.quantity["a"].isGreaterThan(quantity("0")) &&
  //    attributes.stringslice["b"].isSorted()
  optional string selector = 1;
}

// NamedResourcesInstance represents one individual hardware instance that can be selected based
// on its attributes.
message NamedResourcesInstance {
  // Name is unique identifier among all resource instances managed by
  // the driver on the node. It must be a DNS subdomain.

// opts.HashFunc().
//
// This method implements [crypto.Signer], which is an interface to support keys
// where the private part is kept in, for example, a hardware module. Common
// uses should use the Sign* functions in this package directly.
func (priv *PrivateKey) Sign(rand io.Reader, digest []byte, opts crypto.SignerOpts) ([]byte, error) {
	if pssOpts, ok := opts.(*PSSOptions); ok {

TEXT runtime·asminit(SB),NOSPLIT,$0-0
	// Linux and MinGW start the FPU in extended double precision.
	// Other operating systems use double precision.
	// Change to double precision to match them,
	// and to match other hardware that only has double.
	FLDCW	runtime·controlWord64(SB)
	RET

TEXT runtime·mstart(SB),NOSPLIT|TOPFRAME,$0
	CALL	runtime·mstart0(SB)
	RET // not reached

/*
 *  go-routine
 */

// [1] Gueron, S., Kounavis, M.E.: Intel® Carry-Less Multiplication
//     Instruction and its Usage for Computing the GCM Mode rev. 2.02
// [2] Gueron, S., Krasnov, V.: Speeding up Counter Mode in Software and
//     Hardware

#include "textflag.h"

#define B0 X0
#define B1 X1
#define B2 X2
#define B3 X3
#define B4 X4
#define B5 X5
#define B6 X6
#define B7 X7

#define ACC0 X8
#define ACC1 X9

// to a function.  These need spilling/filling in the safepoint/stackgrowth case.
// At the time of fill/spill, the offset must be adjusted by the architecture-dependent
// adjustment to hardware SP that occurs in a call instruction.  E.g., for AMD64,
// at Offset+8 because the return address was pushed.
type RegSpill struct {
	Addr           Addr
	Reg            int16
	Spill, Unspill As
}

		// also inefficient to call into the scheduler so much because sweeping a
		// single span is in general a very fast operation, taking as little as 30 ns
		// on modern hardware. (See #54767.)
		//
		// As a result, bgsweep sweeps in batches, and only calls into the scheduler
		// at the end of every batch. Furthermore, it only yields its time if there