}
	// Add numeric tags
	if format == nil {
		format = defaultLabelFormat
	}
	for k, nvals := range numLabel {
		units := numUnit[k]
		for i, v := range nvals {
			var t *Tag
			if len(units) > 0 {
				t = numericTags.findOrAddTag(format(v, units[i]), units[i], v)
			} else {
				t = numericTags.findOrAddTag(format(v, k), k, v)
			}
			if flat {
				t.FlatDiv += dw
				t.Flat += w

// Each matched pattern are rewritten by its quantized alternatives.
//
// Quantization method is determined by the `_quantization_method` attributes
// attached to each quantizable units.
//
// Template constraints are imposed as follows:
//
// * `QuantizeOpT` should have only one operand.
// * `DequantizeOpT` should have only one result.

   * @param q the blocking queue to be drained
   * @param buffer where to add the transferred elements
   * @param numElements the number of elements to be waited for
   * @param timeout how long to wait before giving up, in units of {@code unit}
   * @param unit a {@code TimeUnit} determining how to interpret the timeout parameter
   * @return the number of elements transferred
   * @throws InterruptedException if interrupted while waiting
   */

		// On systemd using devicemapper each mount into the container has an
		// associated cgroup. We ignore them to ensure we do not get duplicate
		// entries in our summary. For details on .mount units:
		// http://man7.org/linux/man-pages/man5/systemd.mount.5.html
		if strings.HasSuffix(key, ".mount") {
			continue
		}
		// Build the Pod key if this container is managed by a Pod

  // E.g., 9s (45%) 🠆 10s (50%)
  function diffText(from, to) {
    return percentText(from) + " 🠆 " + percentText(to);
  }

  // percentText returns text that displays v in appropriate units alongside its
  // percentange.
  function percentText(v) {
    function percent(v, total) {
      return Number(((100.0 * v) / total).toFixed(1)) + '%';
    }

	%9f    width 9, default precision
	%.2f   default width, precision 2
	%9.2f  width 9, precision 2
	%9.f   width 9, precision 0

Width and precision are measured in units of Unicode code points,
that is, runes. (This differs from C's printf where the
units are always measured in bytes.) Either or both of the flags
may be replaced with the character '*', causing their values to be
obtained from the next operand (preceding the one to format),

		}
		if ah != 0 && ah != al+1 {
			return FormatError("bad successive approximation values")
		}
	}

	// mxx and myy are the number of MCUs (Minimum Coded Units) in the image.
	h0, v0 := d.comp[0].h, d.comp[0].v // The h and v values from the Y components.
	mxx := (d.width + 8*h0 - 1) / (8 * h0)
	myy := (d.height + 8*v0 - 1) / (8 * v0)
	if d.img1 == nil && d.img3 == nil {

	unit := minUnit
	if minUnit != maxUnit && minValue*100 < maxValue && o.OutputFormat != Callgrind {
		// Minimum and maximum values have different units. Scale
		// minimum by 100 to use larger units, allowing minimum value to
		// be scaled down to 0.01, except for callgrind reports since
		// they can only represent integer values.
		_, unit = measurement.Scale(100*minValue, o.SampleUnit, "minimum")

			h = getg().m.highResTimer
			dt := -10 * int64(us) // relative sleep (negative), 100ns units
			stdcall6(_SetWaitableTimer, h, uintptr(unsafe.Pointer(&dt)), 0, 0, 0, 0)
			timeout = _INFINITE
		} else {
			h = _INVALID_HANDLE_VALUE
			timeout = uintptr(us) / 1000 // ms units
		}
		stdcall2(_WaitForSingleObject, h, timeout)
	})
}

func ctrlHandler(_type uint32) uintptr {

// <signedNumber>    ::= <number> | <sign><number>
// <suffix>          ::= <binarySI> | <decimalExponent> | <decimalSI>
// <binarySI>        ::= Ki | Mi | Gi | Ti | Pi | Ei
//
//	(International System of units; See: http://physics.nist.gov/cuu/Units/binary.html)
//
// <decimalSI>       ::= m | "" | k | M | G | T | P | E
//
//	(Note that 1024 = 1Ki but 1000 = 1k; I didn't choose the capitalization.)
//