}

	// Update the last element to be larger. There should be no change.
	heap[len(heap)-1].ev.time = 21
	heapUpdate(heap, len(heap)-1)
	checkHeap(t, heap)
	if heap[len(heap)-1].ev.time != 21 {
		t.Fatalf("heap update failed, expected %d as heap min: %s", 21, heapDebugString(heap))
	}

	// Update the last element to be smaller.
	heap[len(heap)-1].ev.time = 7

		} else if offsetEnd, err = strconv.ParseInt(offsetEndString, 10, 64); err != nil {
			return nil, fmt.Errorf("'%s' does not have a valid last byte position value", rangeString)
		} else if offsetEnd < 0 {
			return nil, fmt.Errorf("Last byte position is negative ('%d')", offsetEnd)
		}
	}

	switch {
	case offsetBegin > -1 && offsetEnd > -1:
		if offsetBegin > offsetEnd {

			}

			last := locs.slots[slot]
			if last.absent() {
				state.f.Fatalf("at %v: slot %v in register %v with no location entry", v, state.slots[slot], &state.registers[reg])
				continue
			}
			regs := last.Registers &^ (1 << reg)
			setSlot(slot, VarLoc{regs, last.StackOffset})
		}

		locs.registers[reg] = locs.registers[reg][:0]
	}

type EventSeries struct {
	// count is the number of occurrences in this series up to the last heartbeat time.
	Count int32 `json:"count" protobuf:"varint,1,opt,name=count"`
	// lastObservedTime is the time when last Event from the series was seen before last heartbeat.
	LastObservedTime metav1.MicroTime `json:"lastObservedTime" protobuf:"bytes,2,opt,name=lastObservedTime"`
}

	for {
		// Find first statement that affects flow of control (break, continue, if, etc.).
		// It will be the last statement of this basic block.
		var last int
		end := blockEnd
		for last = 0; last < len(list); last++ {
			stmt := list[last]
			end = f.statementBoundary(stmt)
			if f.endsBasicSourceBlock(stmt) {
				// If it is a labeled statement, we need to place a counter between

	// assistTimePool is the accumulated assist time since the last update.
	assistTimePool atomic.Int64

	// idleMarkTimePool is the accumulated idle mark time since the last update.
	idleMarkTimePool atomic.Int64

	// idleTimePool is the accumulated time Ps spent on the idle list since the last update.
	idleTimePool atomic.Int64

	// lastUpdate is the nanotime timestamp of the last time update was called.
	//

	// mail.golang.com canonical name = golang.org.
	rx := regexp.MustCompile(`(?m)^([a-z0-9.\-]+)\s+canonical name\s*=\s*([a-z0-9.\-]+)$`)
	// assumes the last CNAME is the correct one
	last := name
	for _, ans := range rx.FindAllStringSubmatch(r, -1) {
		last = ans[2]
	}
	return absDomainName(last), nil
}

func nslookupTXT(name string) (txt []string, err error) {
	var r string
	if r, err = nslookup("txt", name); err != nil {

// RUN: json_to_flatbuffer %p/test_schema.fbs %s | flatbuffer_translate --tflite-flatbuffer-to-mlir -o - | FileCheck %s

// This test is to test that if the flatbuffer omits the last optional input `bias` of tfl.conv_2d op, the flatbuffer_importer will automatically adds `none` value to tfl.conv_2d.

// CHECK: %[[CST:.*]] = "tfl.no_value"() <{value}> : () -> none

	s := Collect(seq)
	SortStableFunc(s, cmp)
	return s
}

// Chunk returns an iterator over consecutive sub-slices of up to n elements of s.
// All but the last sub-slice will have size n.
// All sub-slices are clipped to have no capacity beyond the length.
// If s is empty, the sequence is empty: there is no empty slice in the sequence.
// Chunk panics if n is less than 1.

		return -1
	}
	// Rabin-Karp search from the end of the string
	hashss, pow := bytealg.HashStrRev(substr)
	last := len(s) - n
	var h uint32
	for i := len(s) - 1; i >= last; i-- {
		h = h*bytealg.PrimeRK + uint32(s[i])
	}
	if h == hashss && s[last:] == substr {
		return last
	}
	for i := last - 1; i >= 0; i-- {
		h *= bytealg.PrimeRK
		h += uint32(s[i])
		h -= pow * uint32(s[i+n])