// Many spliterators will have trySplits that are SUBSIZED even if they are not themselves
      // SUBSIZED.
      if (spliterator.hasCharacteristics(Spliterator.SUBSIZED)) {
        // we can drill down to exactly the smallest nonempty spliterator
        while (true) {
          Spliterator<T> prefix = spliterator.trySplit();
          if (prefix == null || prefix.getExactSizeIfKnown() == 0) {
            break;

C,GAAF,MAAaqB,EACNC,EAAMoB,kBChJf,IAEMtB,EAAW,YAGXC,EAAqBlE,UAAE6C,GAAF,OAErBoD,EAAoB,SASpBC,EAA8B,0BAI9BC,EAAiB,6BAEjBC,EAAkB,OAMlBC,aACJ,SAAAA,EAAY9G,GACV2D,KAAKkB,SAAW7E,EAChB2D,KAAKoD,0BAA2B,E,yBASlCC,SAAA,WACE,IAAIC,GAAqB,EACrBC,GAAiB,EACfnC,EAActE,UAAEkD,KAAKkB,UAAUU,QA1BX,2BA0B0C,GAEpE,GAAIR,EAAa,CACf,IAAMoC,EAAQxD,KAAKkB,SAASxE,cAAcuG,GAE1C,GAAIO,EAAO,CACT,GAAmB,UAAfA,EAAMC,KACR,GAAID,EAAME,SAAW1D,KAAKkB,SAASyC,UAAUC,SAASb,GACpDO,GAAqB,MAChB,CACL,IAAMO,EAAgBzC,EAAY1E,cAhCtB,WAkCRmH,GACF/...

  optional ObjectReference involvedObject = 2;

  // This should be a short, machine understandable string that gives the reason
  // for the transition into the object's current status.
  // TODO: provide exact specification for format.
  // +optional
  optional string reason = 3;

  // A human-readable description of the status of this operation.
  // TODO: decide on maximum length.
  // +optional

	var buf []byte
	if w.isZip64() {
		buf = make([]byte, dataDescriptor64Len)
	} else {
		buf = make([]byte, dataDescriptorLen)
	}
	b := writeBuf(buf)
	b.uint32(dataDescriptorSignature) // de-facto standard, required by OS X
	b.uint32(w.CRC32)
	if w.isZip64() {
		b.uint64(w.CompressedSize64)
		b.uint64(w.UncompressedSize64)
	} else {
		b.uint32(w.CompressedSize)
		b.uint32(w.UncompressedSize)
	}

	return match, facts
}

func renderStringMatch(sm *v1alpha3.StringMatch) string {
	if sm == nil {
		return ""
	}

	switch x := sm.MatchType.(type) {
	case *v1alpha3.StringMatch_Exact:
		return x.Exact
	case *v1alpha3.StringMatch_Prefix:
		return x.Prefix + "*"
	}

	return sm.String()
}

func renderMatches(trafficMatches []*v1alpha3.HTTPMatchRequest) string {
	if len(trafficMatches) == 0 {

   * corresponding {@link Set} implementation (such as {@link java.util.HashMap} or {@link
   * java.util.TreeMap}).
   *
   * <p>Each method invocation on the set returned by this method results in exactly one method
   * invocation on the backing map or its {@code keySet} view, with one exception. The {@code
   * addAll} method is implemented as a sequence of {@code put} invocations on the backing map.
   *

    sampleInstances.putAll(checkNotNull(type), checkNotNull(instances));
  }

  /**
   * Returns a fresh instance for {@code type} if possible. The returned instance could be:
   *
   * <ul>
   *   <li>exactly of the given type, including generic type parameters, such as {@code
   *       ImmutableList<String>};
   *   <li>of the raw type;
   *   <li>null if no value can be generated.
   * </ul>
   */

    return (c >= 'A') && (c <= 'Z');
  }

  /**
   * Truncates the given character sequence to the given maximum length. If the length of the
   * sequence is greater than {@code maxLength}, the returned string will be exactly {@code
   * maxLength} chars in length and will end with the given {@code truncationIndicator}. Otherwise,
   * the sequence will be returned as a string with no changes to the content.
   *
   * <p>Examples:
   *

This decoupling of parts, and being a "microframework" that could be extended to cover exactly what is needed was a key feature that I wanted to keep.

Given the simplicity of Flask, it seemed like a good match for building APIs. The next thing to find was a "Django REST Framework" for Flask.

			t.Fatalf("Failed to read header: %s", err)
		}
		if header.Typeflag != TypeReg {
			t.Fatalf("Typeflag should've been %d, found %d", TypeReg, header.Typeflag)
		}
	}
}

// failOnceWriter fails exactly once and then always reports success.
type failOnceWriter bool

func (w *failOnceWriter) Write(b []byte) (int, error) {
	if !*w {
		return 0, io.ErrShortWrite
	}
	*w = true
	return len(b), nil
}