base(hashed), C.size_t(len(hashed)), md, nil, C.int(saltLen))
	}) == 0 {
		return nil, fail("RSA_sign_pss_mgf1")
	}

	return out[:outLen], nil
}

func VerifyRSAPSS(pub *PublicKeyRSA, h crypto.Hash, hashed, sig []byte, saltLen int) error {
	md := cryptoHashToMD(h)
	if md == nil {
		return errors.New("crypto/rsa: unsupported hash function")
	}

	priv, _ := GenerateKey(c, rand.Reader)

	hashed := []byte("testing")
	r, s, err := Sign(rand.Reader, priv, hashed)
	if err != nil {
		t.Errorf("error signing: %s", err)
		return
	}

	if !Verify(&priv.PublicKey, hashed, r, s) {
		t.Errorf("Verify failed")
	}

	hashed[0] ^= 0xff
	if Verify(&priv.PublicKey, hashed, r, s) {
		t.Errorf("Verify always works!")
	}
}

		0x0a, 0x37, 0x9c, 0x69,
	}

	if err := VerifyPSS(&rsaPrivateKey.PublicKey, hash, hashed, sig, nil); err != nil {
		t.Error(err)
	}
}

func TestPSSNilOpts(t *testing.T) {
	hash := crypto.SHA256
	h := hash.New()
	h.Write([]byte("testing"))
	hashed := h.Sum(nil)

	SignPSS(rand.Reader, rsaPrivateKey, hash, hashed, nil)
}

func TestPSSSigning(t *testing.T) {

	copy(em[k-len(hashed):], hashed)
	return em, nil
}

// VerifyPKCS1v15 verifies an RSA PKCS #1 v1.5 signature.
// hashed is the result of hashing the input message using the given hash
// function and sig is the signature. A valid signature is indicated by
// returning a nil error. If hash is zero then hashed is used directly. This
// isn't advisable except for interoperability.
//

import java.text.MessageFormat;
import java.util.concurrent.atomic.AtomicLong;

public interface FileHasherStatistics {
    /**
     * Number of files hashed.
     */
    long getHashedFileCount();

    /**
     * Amount of bytes hashed.
     */
    long getHashedContentLength();

    @ServiceScope(Scope.Global.class)
    class Collector {

	}
}

func getDriverHash(driverName string) string {
	charsFromDriverName := driverName[:23]
	hash := sha1.New()
	hash.Write([]byte(driverName))
	hashed := hex.EncodeToString(hash.Sum(nil))
	hashed = hashed[:16]
	return CSIAttachLimitPrefix + charsFromDriverName + hashed

	if totalkeyLength >= ResourceNameLengthLimit {
		charsFromDriverName := driverName[:23]
		hash := sha1.New()
		hash.Write([]byte(driverName))
		hashed := hex.EncodeToString(hash.Sum(nil))
		hashed = hashed[:16]
		return CSIAttachLimitPrefix + charsFromDriverName + hashed
	}
	return CSIAttachLimitPrefix + driverName

import (
	"crypto/rand"
	"math/big"
	"testing"
)

func testSignAndVerify(t *testing.T, i int, priv *PrivateKey) {
	hashed := []byte("testing")
	r, s, err := Sign(rand.Reader, priv, hashed)
	if err != nil {
		t.Errorf("%d: error signing: %s", i, err)
		return
	}

	if !Verify(&priv.PublicKey, hashed, r, s) {
		t.Errorf("%d: Verify failed", i)
	}
}

	return 0, 0, false // A mismatch
}

func hashToBytes(dst, hash []byte, c elliptic.Curve) {
	l := len(dst)
	if n := c.Params().N.BitLen(); n == l*8 {
		// allocation free path for curves with a length that is a whole number of bytes
		if len(hash) >= l {
			// truncate hash
			copy(dst, hash[:l])
			return
		}
		// pad hash with leading zeros
		p := l - len(hash)
		for i := 0; i < p; i++ {
			dst[i] = 0
		}

const RandReader = randReader(0)

func NewSHA1() hash.Hash   { panic("boringcrypto: not available") }
func NewSHA224() hash.Hash { panic("boringcrypto: not available") }
func NewSHA256() hash.Hash { panic("boringcrypto: not available") }
func NewSHA384() hash.Hash { panic("boringcrypto: not available") }
func NewSHA512() hash.Hash { panic("boringcrypto: not available") }