for i := range bandU {
		// To compute the worst-case MU, we assume the minimum
		// for any bands that are only partially overlapped by
		// some window and the mean for any bands that are
		// completely covered by all windows.
		var util totalUtil

		// Find the lowest and second lowest of the partial
		// bands.
		l := c.bands[i].minUtil
		r1 := c.bands[i+minBands-1].minUtil

				// one), so try to begin a new run by setting size and base
				// based on sum.end.
				size = sum.end()
				base = uint(j+1)<<logMaxPages - size
				continue
			}
			// The entry is completely free, so continue the run.
			size += 1 << logMaxPages
		}
		if size >= uint(npages) {
			// We found a sufficiently large run of free pages straddling
			// some boundary, so compute the address and return it.

func (is Intervals) Overlaps(is2 Intervals) bool {
	// check for empty intervals
	if len(is) == 0 || len(is2) == 0 {
		return false
	}
	li := len(is)
	li2 := len(is2)
	// check for completely disjoint ranges
	if is[li-1].en <= is2[0].st ||
		is[0].st >= is2[li2-1].en {
		return false
	}
	// walk the combined sets of intervals and check for piecewise
	// overlap.
	var pv pairVisitor

// Next ID: 9
message QuantizationConfig {
  // Config presets provide predefined popular or common quantization specs.
  // Lightweight users may choose one of the presets for quick experiments. Each
  // preset is completely represented by other fields in `QuantizationConfig`.
  //
  // When extra entries in `QuantizationSpecs` are provided along with a preset,
  // then those entries will take precedence.
  oneof preset {

template <typename ExecutableType, typename ClientType>
DeviceCompiler<ExecutableType, ClientType>::~DeviceCompiler() {
  // Since programs are owned by the cache, ensure any use of our programs have
  // completed by waiting for all stream executors to complete.
  compiler_client_->WaitForProgramsToFinish();
  // Wait for all outstanding compilations to finish.
  // Resetting the pointer explicitly in the top level destructor.

	{0xc89a94f7, 0xf0b1168e, "It's a tiny change to the code and not completely disgusting. - Bob Manchek", "crc\x01ʇ\x91M\x84g1\xe8", "crc\x01wB\x84\x81#\x98\f\xab"},
	{0xab3abe14, 0x572b74e2, "size:  a.out:  bad magic", "crc\x01ʇ\x91M\x8a\x0f\xad\b", "crc\x01wB\x84\x81\x80\xc9n\xd8"},

		// amount of incoming requests, we may still send some pushes, as we do not `continue` above;
		// however, requests will be handled ~2x as much as pushes. This ensures a wave of requests
		// cannot completely starve pushes. However, this scenario is unlikely.
		select {
		case req, ok := <-con.reqChan:
			if ok {
				if err := ctx.Process(req); err != nil {
					return err
				}
			} else {

				split[idx] = sh
				if idx >= k && len(sh) > 0 {
					hasParity++
				}
			}
			fmt.Printf("Have %d complete remapped data shards and %d complete parity shards. ", ok, hasParity)

			if err := rs.ReconstructData(split); err == nil {
				fmt.Println("Could reconstruct completely")
				for i, data := range split[:k] {
					start := i * len(data)
					copy(m.mapped[start:], data)
				}

		// may not exist if the pod does not reference any PVC
		state.allBound = true
	}
	return nil
}

// PreBind will make the API update with the assumed bindings and wait until
// the PV controller has completely finished the binding operation.
//
// If binding errors, times out or gets undone, then an error will be returned to
// retry scheduling.

	expectCondition(status.StatusTrue)
	proxy.sendHealthCheckRequest(unhealthy)
	expectCondition(status.StatusFalse)
	proxy.sendHealthCheckRequest(healthy)
	expectCondition(status.StatusTrue)

	// Completely disconnect
	conn.Close()
	downstream.CloseSend()
	waitDisconnect()
	conn = setupDownstreamConnection(t, proxy)
	downstream = stream(t, conn)
	sendDownstreamWithNode(t, downstream, node)