case SHA224:
		return "SHA-224"
	case SHA256:
		return "SHA-256"
	case SHA384:
		return "SHA-384"
	case SHA512:
		return "SHA-512"
	case MD5SHA1:
		return "MD5+SHA1"
	case RIPEMD160:
		return "RIPEMD-160"
	case SHA3_224:
		return "SHA3-224"
	case SHA3_256:
		return "SHA3-256"
	case SHA3_384:
		return "SHA3-384"
	case SHA3_512:
		return "SHA3-512"
	case SHA512_224:
		return "SHA-512/224"
	case SHA512_256:

func boringAllowCert(c *Certificate) bool {
	if !fipstls.Required() {
		return true
	}

	// The key must be RSA 2048, RSA 3072, RSA 4096,
	// or ECDSA P-256, P-384, P-521.
	switch k := c.PublicKey.(type) {
	default:
		return false
	case *rsa.PublicKey:
		if size := k.N.BitLen(); size != 2048 && size != 3072 && size != 4096 {
			return false
		}
	case *ecdsa.PublicKey:

		return SigningMethodES3256
	})

	// ES384
	SigningMethodES3384 = &jwt.SigningMethodECDSA{Name: "ES3384", Hash: crypto.SHA3_384, KeySize: 48, CurveBits: 384}
	jwt.RegisterSigningMethod(SigningMethodES3384.Alg(), func() jwt.SigningMethod {
		return SigningMethodES3384
	})

	// ES512

var testingDisableKDSA bool

// canUseKDSA checks if KDSA instruction is available, and if it is, it checks
// the name of the curve to see if it matches the curves supported(P-256, P-384, P-521).
// Then, based on the curve name, a function code and a block size will be assigned.
// If KDSA instruction is not available or if the curve is not supported, canUseKDSA
// will set ok to false.

	// wrong, the search is limited to sensible offsets. PTHREAD_KEYS_MAX was the
	// original limit, but issue 19472 made a higher limit necessary.
	for (i=0; i<384; i++) {
		if (*(tlsbase+i) == (void*)magic1) {
			*tlsg = (void*)(i*sizeof(void *));
			pthread_setspecific(k, 0);
			return;
		}
	}
	fatalf("inittls: could not find pthread key");
}

func P256() Curve {
	initonce.Do(initAll)
	return p256
}

// P384 returns a [Curve] which implements NIST P-384 (FIPS 186-3, section D.2.4),
// also known as secp384r1. The CurveParams.Name of this [Curve] is "P-384".
//
// Multiple invocations of this function will return the same value, so it can
// be used for equality checks and switch statements.
//

	}
}

var p384 = &nistCurve[*nistec.P384Point]{
	newPoint: nistec.NewP384Point,
}

func initP384() {
	p384.params = &CurveParams{
		Name:    "P-384",
		BitSize: 384,
		// FIPS 186-4, section D.1.2.4
		P: bigFromDecimal("394020061963944792122790401001436138050797392704654" +
			"46667948293404245721771496870329047266088258938001861606973112319"),

// P384 returns a [Curve] which implements NIST P-384 (FIPS 186-3, section D.2.4),
// also known as secp384r1.
//
// Multiple invocations of this function will return the same value, which can
// be used for equality checks and switch statements.
func P384() Curve { return p384 }

var p384 = &nistCurve[*nistec.P384Point]{
	name:        "P-384",
	newPoint:    nistec.NewP384Point,
	scalarOrder: p384Order,
}

  }

  private enum Algorithm {
    MD5("MD5", Hashing.md5()),
    SHA_1("SHA-1", Hashing.sha1()),
    SHA_256("SHA-256", Hashing.sha256()),
    SHA_384("SHA-384", Hashing.sha384()),
    SHA_512("SHA-512", Hashing.sha512());

    private final String algorithmName;
    private final HashFunction hashFn;

    Algorithm(String algorithmName, HashFunction hashFn) {

  }

  private enum Algorithm {
    MD5("MD5", Hashing.md5()),
    SHA_1("SHA-1", Hashing.sha1()),
    SHA_256("SHA-256", Hashing.sha256()),
    SHA_384("SHA-384", Hashing.sha384()),
    SHA_512("SHA-512", Hashing.sha512());

    private final String algorithmName;
    private final HashFunction hashFn;

    Algorithm(String algorithmName, HashFunction hashFn) {