d     [800]byte // digits, big-endian representation
	nd    int       // number of digits used
	dp    int       // decimal point
	neg   bool      // negative flag
	trunc bool      // discarded nonzero digits beyond d[:nd]
}

func (a *decimal) String() string {
	n := 10 + a.nd
	if a.dp > 0 {
		n += a.dp
	}
	if a.dp < 0 {
		n += -a.dp
	}

	buf := make([]byte, n)
	w := 0
	switch {
	case a.nd == 0:
		return "0"

	//
	// Suppose d is not denormal, so that 2^exp <= d < 10^dp.
	// The closest shorter number is at least 10^(dp-nd) away.
	// The lower/upper bounds computed below are at distance
	// at most 2^(exp-mantbits).
	//
	// So the number is already shortest if 10^(dp-nd) > 2^(exp-mantbits),
	// or equivalently log2(10)*(dp-nd) > exp-mantbits.
	// It is true if 332/100*(dp-nd) >= exp-mantbits (log2(10) > 3.32).

	if d.dp > 310 {
		goto overflow
	}
	if d.dp < -330 {
		// zero
		mant = 0
		exp = flt.bias
		goto out
	}

	// Scale by powers of two until in range [0.5, 1.0)
	exp = 0
	for d.dp > 0 {
		var n int
		if d.dp >= len(powtab) {
			n = 27
		} else {
			n = powtab[d.dp]
		}
		d.Shift(-n)
		exp += n
	}

	formatDecimal(d, uint64(di), !d0, roundUp, prec)
	// Adjust exponent
	d.dp -= q
}

// ryuFtoaFixed64 formats mant*(2^exp) with prec decimal digits.
func ryuFtoaFixed64(d *decimalSlice, mant uint64, exp int, prec int) {
	if prec > 18 {
		panic("ryuFtoaFixed64 called with prec > 18")
	}
	// Zero input.
	if mant == 0 {
		d.nd, d.dp = 0, 0
		return
	}
	// Renormalize to a 55-bit mantissa.
	e2 := exp

					return fmt.Errorf("got operator service: %s from cluster, expected to be removed", svc.Name)
				}
				if dp, _ := cs.Kube().AppsV1().Deployments(OperatorNamespace).Get(context.TODO(), "istio-operator", metav1.GetOptions{}); dp.Name != "" {
					return fmt.Errorf("got operator deployment %s from cluster, expected to be removed", dp.Name)
				}

				// check the revision of operator which should not to be removed

		return bad(fail("RSA_generate_key_fips"))
	}

	var n, e, d, p, q, dp, dq, qinv *C.GO_BIGNUM
	C._goboringcrypto_RSA_get0_key(key, &n, &e, &d)
	C._goboringcrypto_RSA_get0_factors(key, &p, &q)
	C._goboringcrypto_RSA_get0_crt_params(key, &dp, &dq, &qinv)
	return bnToBig(n), bnToBig(e), bnToBig(d), bnToBig(p), bnToBig(q), bnToBig(dp), bnToBig(dq), bnToBig(qinv), nil
}

type PublicKeyRSA struct {

// config version or earlier.
func isPluginInvalid(apiVersion string, name string) (bool, string) {
	for _, dp := range invalidPluginsByVersion {
		for _, plugin := range dp.plugins {
			if name == plugin {
				return true, dp.schemeGroupVersion
			}
		}
		if apiVersion == dp.schemeGroupVersion {
			break
		}
	}
	return false, ""
}

			return
		}
	}

	// Fill in the backwards-compatibility *big.Int values.
	if priv.Precomputed.Dp != nil {
		return
	}

	priv.Precomputed.Dp = new(big.Int).Sub(priv.Primes[0], bigOne)
	priv.Precomputed.Dp.Mod(priv.D, priv.Precomputed.Dp)

	priv.Precomputed.Dq = new(big.Int).Sub(priv.Primes[1], bigOne)
	priv.Precomputed.Dq.Mod(priv.D, priv.Precomputed.Dq)

//  1) Build subgraphs
//    1.1) Collect output subgraphs.
//    1.2) Build `Subgraph` and their "alternative view" from FuncOp.
//  2) Pick subgraphs
//    2.1) Populate the "dp table" for (subgraph, hardware).
//    2.2) Make decisions based on the populated dp table.
//    2.3) Rewire the whole graph based on the desicions.
//
namespace mlir {
namespace TFL {
namespace tac {
namespace {

		}
		defaultConfig.DefaultConfig = pc
	}

	defaultConfig.DefaultProviders = prevDefaultProvider
	dp, err := extractYamlField("defaultProviders", raw)
	if err != nil {
		return nil, multierror.Prefix(err, "failed to extract default providers")
	}
	if dp != "" {
		if err := protomarshal.ApplyYAML(dp, defaultConfig.DefaultProviders); err != nil {
			return nil, fmt.Errorf("could not parse default providers: %v", err)
		}