}

              class EntrySet extends AbstractSet<Map.Entry<String, String>> {
                @Override
                public Iterator<Entry<String, String>> iterator() {
                  return new Iterator<Entry<String, String>>() {

                    final Iterator<Entry<String, String>> iterator = map.entrySet().iterator();

                    @Override

        for (Map.Entry<String, ?> entry : properties.entrySet()) {
            if (entry.getValue() != null && entry.getValue().toString().length() > 0) {
                args.add("-D" + entry.getKey() + "=" + entry.getValue().toString());
            } else {
                args.add("-D" + entry.getKey());
            }
        }
    }

    /**

        TransientConfigurationResults graphResults = loadTransientGraphResults(getSelectedArtifacts());
        for (Map.Entry<Dependency, DependencyGraphNodeResult> entry : graphResults.getFirstLevelDependencies().entrySet()) {
            if (dependencySpec.isSatisfiedBy(entry.getKey())) {
                matches.add(entry.getValue());
            }
        }
        return matches;
    }

    @Override

 * ```
 *
 * In this example the HTTP client already knows and trusts the last certificate, "Entrust Root
 * Certification Authority - G2". That certificate is used to verify the signature of the
 * intermediate certificate, "Entrust Certification Authority - L1M". The intermediate certificate
 * is used to verify the signature of the "www.squareup.com" certificate.
 *

      this.comparator = multiset.comparator();
      int n = multiset.entrySet().size();
      elements = (E[]) new Object[n];
      counts = new int[n];
      int i = 0;
      for (Entry<E> entry : multiset.entrySet()) {
        elements[i] = entry.getElement();
        counts[i] = entry.getCount();
        i++;
      }
    }

    Object readResolve() {

  // Read serialized entry corresponding to key1.
  XlaSerializedCacheEntry entry;
  TF_ASSERT_OK(ReadTextOrBinaryProto(
      Env::Default(), GetFilePath(key1, persistor.persistent_cache_directory()),
      &entry));
  // Change the entry's key to key2.
  *entry.mutable_key() = key2;
  // Write the modified entry to file corresponding to key2.
  TF_ASSERT_OK(WriteBinaryProto(

        for (Map.Entry<String, Supplier<DependencyModel>> entry : libraries.entrySet()) {
            realizedLibs.put(entry.getKey(), entry.getValue().get());
        }
        ImmutableMap.Builder<String, PluginModel> realizedPlugins = ImmutableMap.builderWithExpectedSize(plugins.size());
        for (Map.Entry<String, Supplier<PluginModel>> entry : plugins.entrySet()) {

// IsZero reports whether f is the zero value.
func (f funcData) IsZero() bool {
	return f.t == nil && f.data == nil
}

// entryPC returns the func's entry PC.
func (f *funcData) entryPC() uint64 {
	// In Go 1.18, the first field of _func changed
	// from a uintptr entry PC to a uint32 entry offset.
	if f.t.version >= ver118 {
		// TODO: support multiple text sections.
		// See runtime/symtab.go:(*moduledata).textAddr.

        final Iterator<Entry<TypeVariable<?>, Type>> it = map.entrySet().iterator();
        Entry<TypeVariable<?>, Type> entry = it.next();
        assertThat(entry.getKey().getName(), is("T1"));
        assertThat(entry.getValue(), is(sameClass(Integer.class)));
        entry = it.next();
        assertThat(entry.getKey().getName(), is("T2"));
        assertThat(entry.getValue(), is(sameClass(Long.class)));

          Iterator<Entry<N, Object>> entries = adjacentNodeValues.entrySet().iterator();
          return new AbstractIterator<N>() {
            @Override
            @CheckForNull
            protected N computeNext() {
              while (entries.hasNext()) {
                Entry<N, Object> entry = entries.next();
                if (isPredecessor(entry.getValue())) {
                  return entry.getKey();