this.ranges = ranges;
  }

  private ImmutableRangeSet(ImmutableList<Range<C>> ranges, ImmutableRangeSet<C> complement) {
    this.ranges = ranges;
    this.complement = complement;
  }

  private final transient ImmutableList<Range<C>> ranges;

  @Override
  public boolean intersects(Range<C> otherRange) {
    int ceilingIndex =
        SortedLists.binarySearch(
            ranges,

    this.ranges = ranges;
  }

  private ImmutableRangeSet(ImmutableList<Range<C>> ranges, ImmutableRangeSet<C> complement) {
    this.ranges = ranges;
    this.complement = complement;
  }

  private final transient ImmutableList<Range<C>> ranges;

  @Override
  public boolean intersects(Range<C> otherRange) {
    int ceilingIndex =
        SortedLists.binarySearch(
            ranges,

  boolean isEmpty();

  /**
   * Returns the minimal range which {@linkplain Range#encloses(Range) encloses} all ranges in this
   * range set.
   *
   * @throws NoSuchElementException if this range set is {@linkplain #isEmpty() empty}
   */
  Range<C> span();

  // Views

  /**
   * Returns a view of the {@linkplain Range#isConnected disconnected} ranges that make up this

        && !priorEntry.getValue().intersection(range).isEmpty();
  }

  @Override
  public boolean encloses(Range<C> range) {
    checkNotNull(range);
    Entry<Cut<C>, Range<C>> floorEntry = rangesByLowerBound.floorEntry(range.lowerBound);
    return floorEntry != null && floorEntry.getValue().encloses(range);
  }

  @CheckForNull
  private Range<C> rangeEnclosing(Range<C> range) {

    for (Range<C> range : other) {
      if (!encloses(range)) {
        return false;
      }
    }
    return true;
  }

  /** Returns {@code true} if this range set contains no ranges. */
  boolean isEmpty();

  /**
   * Returns the minimal range which {@linkplain Range#encloses(Range) encloses} all ranges in this
   * range set.
   *

}

// PutBasedRanges writes a range table to sym. All addresses in ranges are
// relative to some base address, which must be arranged by the caller
// (e.g., with a DW_AT_low_pc attribute, or in a BASE-prefixed range).
func PutBasedRanges(ctxt Context, sym Sym, ranges []Range) {
	ps := ctxt.PtrSize()
	// Write ranges.
	for _, r := range ranges {
		ctxt.AddInt(sym, ps, r.Start)
		ctxt.AddInt(sym, ps, r.End)

	ranges, ok := v.ranges[r]
	return ok && slices.Contains(ranges, name)
}

func (v *Validator) addRange(r trace.ResourceID, name string) {
	ranges, _ := v.ranges[r]
	ranges = append(ranges, name)
	v.ranges[r] = ranges
}

func (v *Validator) hasAnyRange(r trace.ResourceID) bool {
	ranges, ok := v.ranges[r]
	return ok && len(ranges) != 0
}

// It expects ev to be one such event.
func (g *procRangeGenerator) ProcRange(ctx *traceContext, ev *trace.Event) {
	if g.ranges == nil {
		g.ranges = make(map[trace.Range]activeRange)
	}
	r := ev.Range()
	switch ev.Kind() {
	case trace.EventRangeBegin:
		g.ranges[r] = activeRange{ev.Time(), ev.Stack()}
	case trace.EventRangeActive:
		// If we've seen a Sync event, then Active events are always redundant.

      for (Range<Integer> range2 : RANGES) {
        for (Range<Integer> range3 : RANGES) {
          Map<Integer, Integer> model = Maps.newHashMap();
          putModel(model, range1, 1);
          putModel(model, range2, 2);
          putModel(model, range3, 3);
          RangeMap<Integer, Integer> test = TreeRangeMap.create();
          RangeMap<Integer, Integer> test2 = TreeRangeMap.create();

		for i := range ranges {
			range_ := &ranges[i]
			if r < range_.Lo {
				return false
			}
			if r <= range_.Hi {
				return range_.Stride == 1 || (r-range_.Lo)%range_.Stride == 0
			}
		}
		return false
	}

	// binary search over ranges
	lo := 0
	hi := len(ranges)
	for lo < hi {
		m := int(uint(lo+hi) >> 1)
		range_ := ranges[m]
		if range_.Lo <= r && r <= range_.Hi {