}
}

// sysGrow performs architecture-dependent operations on heap
// growth for the page allocator, such as mapping in new memory
// for summaries. It also updates the length of the slices in
// p.summary.
//
// base is the base of the newly-added heap memory and limit is
// the first address past the end of the newly-added heap memory.
// Both must be aligned to pallocChunkBytes.
//

FESS_JAVA_OPTS="$FESS_JAVA_OPTS -Dlog4j.skipJansi=true"

# Causes the JVM to dump its heap on OutOfMemory.
#FESS_JAVA_OPTS="$FESS_JAVA_OPTS -XX:+HeapDumpOnOutOfMemoryError"
# The path to the heap dump location, note directory must exists and have enough
# space for a full heap dump.
#FESS_JAVA_OPTS="$FESS_JAVA_OPTS -XX:HeapDumpPath=$FESS_HOME/logs/heapdump.hprof"

# Disables explicit GC

                    println "Initial Heap: " + memBean.heapMemoryUsage.init
                    assert memBean.heapMemoryUsage.init == 256 * 1024 * 1024
                    println "    Max Heap: " + memBean.heapMemoryUsage.max

                    // Java 8 does not report max heap size exactly matching the command line setting
                    if ($java9orAbove) {

# Environment file
packaging.env.file=

# Default configuration directory and file to use in bin/plugin script

# Default values for min/max heap memory allocated to fess java process
packaging.fess.heap.min=256m
packaging.fess.heap.max=1g

# Specifies the maximum file descriptor number
packaging.os.max.open.files=65535

# Maximum number of VMA (Virtual Memory Areas) a process can own

	traceAllocFreeInfoBatch         // Contains info for interpreting events. [min heap addr, page size, min heap align, min stack align]
)

// traceSnapshotMemory takes a snapshot of all runtime memory that there are events for
// (heap spans, heap objects, goroutine stacks, etc.) and writes out events for them.
//

	return fmt.Sprintf("%d", int(e)) // ERROR "... argument does not escape$" "int\(e\) escapes to heap$"
}

//go:noinline
func foo(ops closure, j int) (err fmt.Stringer) { // ERROR "ops does not escape"
	enqueue := func(i int) fmt.Stringer { // ERROR "func literal does not escape"
		return ops(i, j) // ERROR "ops\(i, j\) escapes to heap$"
	}
	err = enqueue(4)
	if err != nil {
		return err
	}

	// (3) Group each event batch by M, sorted by timestamp. (batchCursor contains the groups.)
	// (4) Organize batchCursors in a min-heap, ordered by the timestamp of the next event for each M.
	// (5) Try to advance the next event for the M at the top of the min-heap.
	//   (a) On success, select that M.
	//   (b) On failure, sort the min-heap and try to advance other Ms. Select the first M that advances.
	//   (c) If there's nothing left to advance, goto (1).

		}
	}
}

type StackObj struct {
	h *HeapObj
}

func gc(shouldFinalize bool) {
	runtime.GC()
	runtime.GC()
	runtime.GC()
	if shouldFinalize != finalized {
		err = "heap object finalized at the wrong time"
	}
}

func main() {
	var s StackObj
	s.h = new(HeapObj)
	s.h.init()
	runtime.SetFinalizer(s.h, func(h *HeapObj) {
		finalized = true
	})
	gc(false)
	h := g(&s)

func (q *UniqueQueue) Replace(value TimedValue) bool {
	q.lock.Lock()
	defer q.lock.Unlock()

	for i := range q.queue {
		if q.queue[i].Value != value.Value {
			continue
		}
		heap.Remove(&q.queue, i)
		heap.Push(&q.queue, &value)
		return true
	}
	return false
}

// RemoveFromQueue the value from the queue, but keeps it in the set,
// so it won't be added second time. Returns true if something was
// removed.

	sorted := []*delayTask{t1, t2, t3, t4}
	// fill in an unsorted order
	unsorted := []*delayTask{t4, t2, t3, t1}
	for _, task := range unsorted {
		heap.Push(pq, task)
	}

	// dequeue should be in order
	for i, task := range sorted {
		peeked := pq.Peek()
		popped := heap.Pop(pq)
		if task != popped {
			t.Fatalf("pop %d was not in order", i)
		}
		if peeked != popped {