}
	}
}

func BenchmarkMarshalBytes(b *testing.B) {
	b.ReportAllocs()
	// 32 fits within encodeState.scratch.
	b.Run("32", benchMarshalBytes(32))
	// 256 doesn't fit in encodeState.scratch, but is small enough to
	// allocate and avoid the slower base64.NewEncoder.
	b.Run("256", benchMarshalBytes(256))
	// 4096 is large enough that we want to avoid allocating for it.
	b.Run("4096", benchMarshalBytes(4096))
}

    // ===================================================================================
    //                                                                        Small Helper
    //                                                                        ============
    protected void verifyCrudMode(final int crudMode, final int expectedMode) {
        if (crudMode != expectedMode) {

// to the respective file set before the file implied by q.
type Pos int

// The zero value for [Pos] is NoPos; there is no file and line information
// associated with it, and NoPos.IsValid() is false. NoPos is always
// smaller than any other [Pos] value. The corresponding [Position] value
// for NoPos is the zero value for [Position].
const NoPos Pos = 0

// IsValid reports whether the position is valid.
func (p Pos) IsValid() bool {

 *       SHORT is always discriminable from zero time, and always allows enough time for the small
 *       amounts of computation (creating a thread, calling a few methods, etc) needed to reach a
 *       timeout point. Similarly, a SMALL is always discriminable as larger than SHORT and smaller
 *       than MEDIUM. And so on. These constants are set to conservative values, but even so, if

   * href="http://mathworld.wolfram.com/PrimeNumber.html">prime number</a>: an integer <i>greater
   * than one</i> that cannot be factored into a product of <i>smaller</i> positive integers.
   * Returns {@code false} if {@code n} is zero, one, or a composite number (one which <i>can</i> be
   * factored into smaller positive integers).
   *
   * <p>To test larger numbers, use {@link BigInteger#isProbablePrime}.
   *

		p.parts = oldParts

		// The Go ABI aligns arguments.
		p.dstStackSize = alignUp(p.dstStackSize, uintptr(t.Align_))

		// Copy just the size of the argument. Note that this
		// could be a small by-value struct, but C and Go
		// struct layouts are compatible, so we can copy these
		// directly, too.
		part := abiPart{
			kind:           abiPartStack,
			srcStackOffset: p.srcStackSize,

# Useful for scheduling heapster in large clusters with nodes of small size.
HEAPSTER_MACHINE_TYPE=${HEAPSTER_MACHINE_TYPE:-}

# Optional: Additional nodes would be created if their type and number is specified.
# NUM_NODES would be lowered respectively.
# Useful for running cluster-level addons that needs more resources than would fit
# on small nodes, like network plugins.
NUM_ADDITIONAL_NODES=${NUM_ADDITIONAL_NODES:-}

	}
	if n < int64(len(r.tmp)) {
		// Since the data is so small, a just reading from the buffered
		// reader is better than flushing the buffer and seeking.
		r.readFull(r.tmp[:n])
	} else if n <= int64(r.b.Buffered()) {
		// Even though the data is not small, it has already been read.
		// Advance the buffer instead of seeking.
		for n > int64(len(r.tmp)) {

 *       SHORT is always discriminable from zero time, and always allows enough time for the small
 *       amounts of computation (creating a thread, calling a few methods, etc) needed to reach a
 *       timeout point. Similarly, a SMALL is always discriminable as larger than SHORT and smaller
 *       than MEDIUM. And so on. These constants are set to conservative values, but even so, if

            return entity;
        });
    }

    // ===================================================================================
    //                                                                        Small Helper
    //                                                                        ============
    protected void verifyCrudMode(final int crudMode, final int expectedMode) {
        if (crudMode != expectedMode) {