opset(ALVSR, r0)

		case ASTVEBX: /* stvebx, stvehx, stvewx, stvx, stvxl */
			opset(ASTVEHX, r0)
			opset(ASTVEWX, r0)
			opset(ASTVX, r0)
			opset(ASTVXL, r0)

		case AVAND: /* vand, vandc, vnand */
			opset(AVAND, r0)
			opset(AVANDC, r0)
			opset(AVNAND, r0)

		case AVMRGOW: /* vmrgew, vmrgow */
			opset(AVMRGEW, r0)

		case AVOR: /* vor, vorc, vxor, vnor, veqv */
			opset(AVOR, r0)

	{AANDS, C_MOVCON, C_ZREG, C_NONE, C_ZREG, C_NONE, 62, 8, 0, 0, 0},
	{AANDS, C_MOVCON, C_NONE, C_NONE, C_ZREG, C_NONE, 62, 8, 0, 0, 0},
	{ATST, C_MOVCON, C_ZREG, C_NONE, C_NONE, C_NONE, 62, 8, 0, 0, 0},
	{AAND, C_MOVCON2, C_ZREG, C_NONE, C_ZREG, C_NONE, 28, 12, 0, 0, 0},
	{AAND, C_MOVCON2, C_NONE, C_NONE, C_ZREG, C_NONE, 28, 12, 0, 0, 0},

func TestCreateCertificateRequest(t *testing.T) {
	random := rand.Reader

	ecdsa256Priv, err := ecdsa.GenerateKey(elliptic.P256(), rand.Reader)
	if err != nil {
		t.Fatalf("Failed to generate ECDSA key: %s", err)
	}

	ecdsa384Priv, err := ecdsa.GenerateKey(elliptic.P384(), rand.Reader)
	if err != nil {
		t.Fatalf("Failed to generate ECDSA key: %s", err)
	}

}

// You are doasm, holding in your hand a *obj.Prog with p.As set to, say,
// ACRC32, and p.From and p.To as operands (obj.Addr).  The linker scans optab
// to find the entry with the given p.As and then looks through the ytable for
// that instruction (the second field in the optab struct) for a line whose
// first two values match the Ytypes of the p.From and p.To operands.  The

		sem <- true
		wg.Add(1)
		go func() {
			defer func() {
				<-sem
				wg.Done()
			}()
			qwait := (time.Duration(rand.Intn(milliWait)) * time.Millisecond).String()

			ctx, cancel := context.WithTimeout(ctx, time.Duration(rand.Intn(milliWait))*time.Millisecond)
			defer cancel()

			tx, err := db.BeginTx(ctx, nil)
			if err != nil {
				return
			}

		return n * 8 // Trampolines in RISCV64 are 2 instructions.
	}
	panic("unreachable")
}

// Detect too-far jumps in function s, and add trampolines if necessary.
// ARM, PPC64, PPC64LE and RISCV64 support trampoline insertion for internal
// and external linking. On PPC64 and PPC64LE the text sections might be split
// but will still insert trampolines where necessary.
func trampoline(ctxt *Link, s loader.Sym) {

				b.cacheObjdirFile(a, cache.Default(), ba.covMetaFileName)
			}
		}
	}

	// Run SWIG on each .swig and .swigcxx file.
	// Each run will generate two files, a .go file and a .c or .cxx file.
	// The .go file will use import "C" and is to be processed by cgo.
	// For -cover test or build runs, this needs to happen after the cover
	// tool is run; we don't want to instrument swig-generated Go files,

//	[false false false false]
//	...
//	[true true true true]
type exhaustive struct {
	r    *rand.Rand
	pos  int
	last []choice
}

type choice struct {
	off int
	n   int
	max int
}

func (x *exhaustive) Next() bool {
	if x.r == nil {
		x.r = rand.New(rand.NewSource(time.Now().UnixNano()))
	}
	x.pos = 0
	if x.last == nil {
		x.last = []choice{}

	//
	// In the new tracer, we model needm and dropm and a goroutine being created and
	// destroyed respectively. The m then might get reused with a different procid but
	// still with a reference to oldp, and still with the same syscalltick. The next
	// time a G is "created" in needm, it'll return and quietly reacquire its P from a

def ConvertToLegacyCompileAndReplicateAttributesPass : Pass<"tf-convert-to-legacy-compile-and-replicate-attributes", "mlir::func::FuncOp"> {
  let summary = "Convert unified compilation and replication attributes back to legacy attributes.";

  let description = [{
    This transformation pass converts unified compilation and replication
    attributes (`_replication_info` and `_xla_compile_device_type`) into legacy