// iterations).
class AndRecurrencePredicate : public Predicate {
 public:
  explicit AndRecurrencePredicate(int64_t id, Predicate* start, Predicate* step,
                                  std::vector<string> frame)
      : Predicate(id), operands_({start, step}), frame_(std::move(frame)) {}

  Predicate* start() const { return operands_[0]; }
  Predicate* step() const { return operands_[1]; }

			print("?")
		}
	}

	start := true
	printcomma := func() {
		if !start {
			print(", ")
		}
	}
	pi := 0
	slotIdx := uint8(0) // register arg spill slot index
printloop:
	for {
		o := p[pi]
		pi++
		switch o {
		case abi.TraceArgsEndSeq:
			break printloop
		case abi.TraceArgsStartAgg:
			printcomma()
			print("{")
			start = true
			continue

        </JSON>
    </OutputSerialization>
    <RequestProgress>
        <Enabled>FALSE</Enabled>
    </RequestProgress>
	<ScanRange><Start>56</Start><End>76</End></ScanRange>
</SelectObjectContentRequest>`),
		},
		{
			name:  "error-end-before-start",
			input: testInput,
			// Since we are doing offset, no headers are used.
			wantResult: ``,
			wantErr:    true,

type work struct {
	dt    *distTest     // unique test name, etc.
	cmd   *exec.Cmd     // must write stdout/stderr to out
	flush func()        // if non-nil, called after cmd.Run
	start chan bool     // a true means to start, a false means to skip
	out   bytes.Buffer  // combined stdout/stderr from cmd
	err   error         // work result
	end   chan struct{} // a value means cmd ended (or was skipped)
}

	Lnimpid  int32  // Number of import file IDs
	Lstlen   uint32 // Length of string table
	Limpoff  uint64 // Offset to start of import file IDs
	Lstoff   uint64 // Offset to start of string table
	Lsymoff  uint64 // Offset to start of symbol table
	Lrldoff  uint64 // Offset to start of relocation entries
}

// Loader Symbol
type XcoffLdSym64 struct {
	Lvalue  uint64 // Address field

// approximately 20 milliseconds, even if the wall clock is changed during
// the operation being timed:
//
//	start := time.Now()
//	... operation that takes 20 milliseconds ...
//	t := time.Now()
//	elapsed := t.Sub(start)
//
// Other idioms, such as [time.Since](start), [time.Until](deadline), and
// time.Now().Before(deadline), are similarly robust against wall clock
// resets.
//

func (q *queue[T]) pop() (T, bool) {
	if q.end-q.start == 0 {
		return *new(T), false
	}
	elem := &q.buf[q.start%len(q.buf)]
	value := *elem
	*elem = *new(T) // Clear the entry before returning, so we don't hold onto old tables.
	q.start++
	return value, true
}

// makeEvent creates an Event from the provided information.
//

                  .ok());
  ASSERT_TRUE(worker_server1->Start().ok());
  server_def_0.set_task_index(2);
  std::unique_ptr<tensorflow::GrpcServer> worker_server2;
  ASSERT_TRUE(tensorflow::GrpcServer::Create(
                  server_def_0, tensorflow::Env::Default(), &worker_server2)
                  .ok());
  ASSERT_TRUE(worker_server2->Start().ok());

  TFE_Context* ctx_0 = CreateContext(serialized_server_def_0,

fi

if [[ "${START_MODE}" != "kubeletonly" ]]; then
  echo
  if [[ "${ENABLE_DAEMON}" = false ]]; then
    echo "To start using your cluster, you can open up another terminal/tab and run:"
  else
    echo "To start using your cluster, run:"
  fi
  cat <<EOF

  export KUBECONFIG=${CERT_DIR}/admin.kubeconfig
  cluster/kubectl.sh

// and heapmap(s->start) == span, heapmap(s->start+s->npages-1) == span.
// If the mspan is in the heap scav treap, then in addition to the
// above scavenged == true. scavenged == false in all other cases.
//
// When a mspan is allocated, state == mSpanInUse or mSpanManual
// and heapmap(i) == span for all s->start <= i < s->start+s->npages.