// WorkerQueue implements an expandable goroutine pool which executes at most one concurrent routine per target
// resource.  Multiple calls to Push() will not schedule multiple executions per target resource, but will ensure that
// the single execution uses the latest value.
type WorkerQueue interface {
	// Push a task.
	Push(target Resource, controller *Controller, context any)
	// Run the loop until a signal on the context
	Run(ctx context.Context)

John Howard <******@****.***> 1612556881 -0800

		t.Fatalf("got %v; want 3", v)
	}
}

// Test that Pool does not hold pointers to previously cached resources.
func TestPoolGC(t *testing.T) {
	testPool(t, true)
}

// Test that Pool releases resources on GC.
func TestPoolRelease(t *testing.T) {
	testPool(t, false)
}

func testPool(t *testing.T, drain bool) {
	var p Pool
	const N = 100
loop:
	for try := 0; try < 3; try++ {

#    -v            print fess version, then exit
#    -D prop       set JAVA system property
#    -X prop       set non-standard JAVA system property
#   --prop=val
#   --prop val     set fess property (i.e.  -Des.<prop>=<val>)

CDPATH=""
SCRIPT="$0"

# SCRIPT may be an arbitrarily deep series of symlinks. Loop until we have the concrete path.
while [ -h "$SCRIPT" ] ; do
  ls=`ls -ld "$SCRIPT"`

// splicePipePool caches pipes to avoid high-frequency construction and destruction of pipe buffers.
// The garbage collector will free all pipes in the sync.Pool periodically, thus we need to set up
// a finalizer for each pipe to close its file descriptors before the actual GC.
var splicePipePool = sync.Pool{New: newPoolPipe}

func newPoolPipe() any {
	// Discard the error which occurred during the creation of pipe buffer,

limitations under the License.
*/

package resource

import (
	"math"
	"math/big"
	"sync"
)

var (
	// A sync pool to reduce allocation.
	intPool  sync.Pool
	maxInt64 = big.NewInt(math.MaxInt64)
)

func init() {
	intPool.New = func() interface{} {
		return &big.Int{}
	}
}

	composites := make(chan int, 50)

	// The feedback loop.
	primes := make(chan int, 10)
	primes <- 3

	// Merge channels of multiples of 'primes' into 'composites'.
	go func() {
		var h PeekChHeap
		min := 15
		for {
			m := multiples(<-primes)
			head := <-m
			for min < head {
				composites <- min
				minchan := heap.Pop(&h).(*PeekCh)
				min = minchan.head
				minchan.head = <-minchan.ch

	r.lock.Lock()
	defer r.lock.Unlock()
	return r.max - r.count
}

// Snapshot saves the current state of the pool.
func (r *AllocationBitmap) Snapshot() (string, []byte) {
	r.lock.Lock()
	defer r.lock.Unlock()

	return r.rangeSpec, r.allocated.Bytes()
}

// Restore restores the pool to the previously captured state.
func (r *AllocationBitmap) Restore(rangeSpec string, data []byte) error {
	r.lock.Lock()

std::array<int, 4> GetPadOpPaddingValues(const TorchAvgPoolData& pool) {
  int pad_bottom = pool.ph;
  int pad_right = pool.pw;

  if (pool.ceil_mode) {
    const int remaining_bottom = pool.h_in - ((pool.h_out - 1) * pool.sh);
    const int ceil_pad_bottom = pool.kh - remaining_bottom;
    pad_bottom = ceil_pad_bottom - pool.ph;

    const int remaining_right = pool.w_in - ((pool.w_out - 1) * pool.sw);

//             buffer is on a doubleword boundary.
//      R4:    Length of the buffer, must be 64 bytes or greater.
//
// Register usage:
//
//      R5:     CRC-32 constant pool base pointer.
//      V0:     Initial CRC value and intermediate constants and results.
//      V1..V4: Data for CRC computation.
//      V5..V8: Next data chunks that are fetched from the input buffer.
//