*
 * <p>{@code Object.hashCode} implementations tend to be very fast, but have weak collision
 * prevention and <i>no</i> expectation of bit dispersion. This leaves them perfectly suitable for
 * use in hash tables, because extra collisions cause only a slight performance hit, while poor bit
 * dispersion is easily corrected using a secondary hash function (which all reasonable hash table

 *
 * <p>{@code Object.hashCode} implementations tend to be very fast, but have weak collision
 * prevention and <i>no</i> expectation of bit dispersion. This leaves them perfectly suitable for
 * use in hash tables, because extra collisions cause only a slight performance hit, while poor bit
 * dispersion is easily corrected using a secondary hash function (which all reasonable hash table

                .build()) {
            MavenSession mSession = new MavenSession(repoSession, request, new DefaultMavenExecutionResult());
            InternalSession iSession = new SimpleSession(mSession, repoSystem, null);
            InternalSession.associate(repoSession, iSession);

            List<RemoteRepository> repositories = RepositoryUtils.toRepos(request.getPluginArtifactRepositories());

	// complement encoded number in big-endian byte order.
	if len(b) > 0 && b[0]&0x80 != 0 {
		// Handling negative numbers relies on the following identity:
		//	-a-1 == ^a
		//
		// If the number is negative, we use an inversion mask to invert the
		// data bytes and treat the value as an unsigned number.
		var inv byte // 0x00 if positive or zero, 0xff if negative
		if b[0]&0x40 != 0 {
			inv = 0xff
		}

		var x uint64

        config.setRepositorySession(repoSession);

        InternalSession iSession = InternalSession.from(repoSession);
        InternalMavenSession mSession = InternalMavenSession.from(iSession);
        Path root = pomFile.getParentFile().toPath();
        while (root != null
                && !Files.isDirectory(root.resolve(".mvn"))

1} one := Element{1, 0, 0, 0, 0} var xinv, r Element xinv.Invert(&x) r.Multiply(&x, &xinv) r.reduce() if one != r { t.Errorf("inversion identity failed, got: %x", r) } var bytes [32]byte _, err := io.ReadFull(rand.Reader, bytes[:]) if err != nil { t.Fatal(err) } x.SetBytes(bytes[:]) xinv.Invert(&x) r.Multiply(&x, &xinv) r.reduce() if one != r { t.Errorf("random inversion identity failed, got: %x for field element %x", r, x) } zero := Element{} x.Set(&zero) if xx := xinv.Invert(&x); xx != &xinv {...

// https://www.iana.org/domains/root/db/band.html
band

// bank : fTLD Registry Services LLC
// https://www.iana.org/domains/root/db/bank.html
bank

// bar : Punto 2012 Sociedad Anonima Promotora de Inversion de Capital Variable
// https://www.iana.org/domains/root/db/bar.html
bar

// barcelona : Municipi de Barcelona
// https://www.iana.org/domains/root/db/barcelona.html
barcelona

1} one := Element{1, 0, 0, 0, 0} var xinv, r Element xinv.Invert(&x) r.Multiply(&x, &xinv) r.reduce() if one != r { t.Errorf("inversion identity failed, got: %x", r) } var bytes [32]byte _, err := io.ReadFull(rand.Reader, bytes[:]) if err != nil { t.Fatal(err) } x.SetBytes(bytes[:]) xinv.Invert(&x) r.Multiply(&x, &xinv) r.reduce() if one != r { t.Errorf("random inversion identity failed, got: %x for field element %x", r, x) } zero := Element{} x.Set(&zero) if xx := xinv.Invert(&x); xx != &xinv {...

to `tf.setdiff1d` to match NumPy naming. * `tf.inv` has been renamed to be
`tf.reciprocal` (component-wise reciprocal) to avoid confusion with `np.inv`
which is matrix inversion * tf.round now uses banker's rounding (round to even)
semantics to match NumPy. * `tf.split` now takes arguments in a reversed order
and with different keywords. In particular, we now match NumPy order as