- **Scheduling**
  - [alpha] Added support for accounting opaque integer resources. ([docs](http://kubernetes.io/docs/user-guide/compute-resources/#opaque-integer-resources-alpha-feature)) ([kubernetes/features#76](https://github.com/kubernetes/enhancements/issues/76))

	if len(rpt.options.ActiveFilters) > 0 {
		activeFilters := legendActiveFilters(rpt.options.ActiveFilters)
		label = append(label, activeFilters...)
	}

	label = append(label, fmt.Sprintf("Showing nodes accounting for %s, %s of %s total", rpt.formatValue(flatSum), strings.TrimSpace(measurement.Percentage(flatSum, rpt.total)), rpt.formatValue(rpt.total)))

	if rpt.total != 0 {
		if droppedNodes > 0 {

						break
					} else {
						cache.inUse--
						releasem(mp)
						return val, pc
					}
				}
			}
		} else if debugCheckCache && (cache.inUse < 1 || cache.inUse > 2) {
			// Catch accounting errors or deeply reentrant use. In principle
			// "inUse" should never exceed 2.
			throw("cache.inUse out of range")
		}
		cache.inUse--
		releasem(mp)
	}

	if !f.valid() {

    }
    return false;
  }

  /**
   * Coerces an IPv6 address into an IPv4 address.
   *
   * <p>HACK: As long as applications continue to use IPv4 addresses for indexing into tables,
   * accounting, et cetera, it may be necessary to <b>coerce</b> IPv6 addresses into IPv4 addresses.
   * This method does so by hashing 64 bits of the IPv6 address into {@code 224.0.0.0/3} (64 bits
   * into 29 bits):
   *
   * <ul>

    }
    return false;
  }

  /**
   * Coerces an IPv6 address into an IPv4 address.
   *
   * <p>HACK: As long as applications continue to use IPv4 addresses for indexing into tables,
   * accounting, et cetera, it may be necessary to <b>coerce</b> IPv6 addresses into IPv4 addresses.
   * This method does so by hashing 64 bits of the IPv6 address into {@code 224.0.0.0/3} (64 bits
   * into 29 bits):
   *
   * <ul>

	strictDupMsgs int // number of strict-dup warning/errors, when FlagStrictDups is enabled

	errorReporter *ErrorReporter

	npkgsyms    int // number of package symbols, for accounting
	nhashedsyms int // number of hashed symbols, for accounting
}

const (
	pkgDef = iota
	hashed64Def
	hashedDef
	nonPkgDef
	nonPkgRef
)

// objidx
const (
	nilObj = iota
	extObj
	goObjStart
)

				// scavenged is being cleared properly on allocation.
				// If a used bit and scavenged bit are both set, that's
				// an error, and could indicate a larger problem, or
				// an accounting problem.
				want := chunk.scavenged[j] &^ chunk.pallocBits[j]
				got := chunk.scavenged[j]
				if want != got {
					ok = false
					if n >= len(mismatches) {
						break chunkLoop
					}

		// in the map alloc hint.
		// We're assuming here that all the keys in the map literal are distinct.
		// If any are equal, this will be an overcount. Probably not worth accounting
		// for that, as equal keys in map literals are rare, and at worst we waste
		// a bit of space.
		n.Len += int64(len(dynamics))

		return m
	}

	for i, a := range desc.Args {
		fmt.Fprintf(w, " %s=%d", a, ev.Args[i])
	}
	return w.String()
}

// argNum returns total number of args for the event accounting for timestamps,
// sequence numbers and differences between trace format versions.
func (raw *rawEvent) argNum() int {
	desc := &EventDescriptions[raw.typ]
	if raw.typ == EvStack {
		return len(raw.args)
	}

	return int(daysBefore[m] - daysBefore[m-1])
}

// daysSinceEpoch takes a year and returns the number of days from
// the absolute epoch to the start of that year.
// This is basically (year - zeroYear) * 365, but accounting for leap days.
func daysSinceEpoch(year int) uint64 {
	y := uint64(int64(year) - absoluteZeroYear)

	// Add in days from 400-year cycles.
	n := y / 400
	y -= 400 * n
	d := daysPer400Years * n