type noteData struct {
	s [_ERRMAX]byte
	n int // n bytes of s are valid
}

type noteQueue struct {
	lock mutex
	data [qsize]noteData
	ri   int
	wi   int
	full bool
}

// It is not allowed to allocate memory in the signal handler.
func (q *noteQueue) push(item *byte) bool {
	lock(&q.lock)
	if q.full {
		unlock(&q.lock)
		return false
	}
	s := gostringnocopy(item)
	copy(q.data[q.wi].s[:], s)

func (h *huffmanEncoder) generate(freq []int32, maxBits int32) {
	if h.freqcache == nil {
		// Allocate a reusable buffer with the longest possible frequency table.
		// Possible lengths are codegenCodeCount, offsetCodeCount and maxNumLit.
		// The largest of these is maxNumLit, so we allocate for that case.
		h.freqcache = make([]literalNode, maxNumLit+1)
	}
	list := h.freqcache[:len(freq)+1]

		// and all options returned by contextOptions are known.
		return "", err
	}
	// InitLabels() may allocate a new unique SELinux label in kubelet memory. The label is *not* allocated
	// in the container runtime. Clear it to avoid memory problems.
	// ReleaseLabel on non-allocated label is NOOP.
	selinux.ReleaseLabel(processLabel)

	return fileLabel, nil
}

import java.io.InputStreamReader;
import java.nio.charset.Charset;
import java.util.Random;

/**
 * Benchmarks for various potential implementations of {@code ByteSource.asCharSource(...).read()}.
 */
// These benchmarks allocate a lot of data so use a large heap
@VmOptions({"-Xms12g", "-Xmx12g", "-d64"})
public class ByteSourceAsCharSourceReadBenchmark {
  enum ReadStrategy {
    TO_BYTE_ARRAY_NEW_STRING {
      @Override

// but topologymanager do not track providers anymore
func (s *scope) allocateAlignedResources(pod *v1.Pod, container *v1.Container) error {
	for _, provider := range s.hintProviders {
		err := provider.Allocate(pod, container)
		if err != nil {
			return err
		}
	}
	return nil

	// The number of PCs and PCFlags is the same as the number of 8-bit counters. Each PC table entry has
	// the size of two ptr-sized integers. We allocate one more byte than what we actually need so that we can
	// get a pointer representing the end of the PC table array.
	size := (uintptr(end)-uintptr(start))*unsafe.Sizeof(uintptr(0))*2 + 1
	pcTables = make([]byte, size)

// memory alignment preferences.
TF_CAPI_EXPORT extern size_t TF_TensorDefaultAlignment();

// Allocate and return a new Tensor.
//
// This function is an alternative to TF_NewTensor and should be used when
// memory is allocated to pass the Tensor to the C API. The allocated memory
// satisfies TensorFlow's memory alignment preferences and should be preferred
// over calling malloc and free.
//

                        } catch (IOException e) {
                            return
                        }
                        try {
                            connection.read(ByteBuffer.allocate(4096))
                            connection.write(ByteBuffer.wrap("hello".bytes))
                        } finally {
                            connection.close()
                        }
                    }

	// Start with standard C stack frame layout and linkage.
	MOVD	LR, R0
	MOVD	R0, 16(R1) // Save LR in caller's frame.
	MOVW	CR, R0	   // Save CR in caller's frame
	MOVD	R0, 8(R1)

	MOVDU	R1, -344(R1) // Allocate frame.

	// Preserve callee-save registers.
	MOVD	R14, 48(R1)
	MOVD	R15, 56(R1)
	MOVD	R16, 64(R1)
	MOVD	R17, 72(R1)
	MOVD	R18, 80(R1)
	MOVD	R19, 88(R1)
	MOVD	R20, 96(R1)
	MOVD	R21,104(R1)

	if p.a != p.a1 {
		println("SubpSub", p, p.a1)
		panic("fail")
	}
	return p.a
}

/******
 ******
 ******/

func main() {
	var i I
	var s *S

	// allocate
	s = new(S)
	s.Subp = new(Subp)
	s.Sub.SubSubp = new(SubSubp)
	s.Subp.SubpSubp = new(SubpSubp)

	// explicit assignment
	s.a = 1
	s.Sub.a = 2
	s.Subp.a = 3
	s.Sub.SubSub.a = 4