// and is consulted to achieve NUMA aware resource alignment among this
	// and other resource controllers.
	GetTopologyHints(*v1.Pod, *v1.Container) map[string][]topologymanager.TopologyHint

	// GetPodTopologyHints implements the topologymanager.HintProvider Interface
	// and is consulted to achieve NUMA aware resource alignment among this
	// and other resource controllers.

	// State returns a read-only interface to the internal CPU manager state.
	State() state.Reader

	// GetTopologyHints implements the topologymanager.HintProvider Interface
	// and is consulted to achieve NUMA aware resource alignment among this
	// and other resource controllers.
	GetTopologyHints(*v1.Pod, *v1.Container) map[string][]topologymanager.TopologyHint

	// GetExclusiveCPUs implements the podresources.CPUsProvider interface to provide

	// pods with optimal NUMA node alignment for requested resources
	RestrictedTopologyManagerPolicy = "restricted"
	// BestEffortTopologyManagerPolicy is a mode in which kubelet will favour
	// pods with NUMA alignment of CPU and device resources.
	BestEffortTopologyManagerPolicy = "best-effort"
	// NoneTopologyManagerPolicy is a mode in which kubelet has no knowledge
	// of NUMA alignment of a pod's CPU and device resources.

struct my_epoll_event {
	uint32_t events;
#if defined(__ARM_EABI__) || defined(__aarch64__) || (defined(__mips__) && _MIPS_SIM == _ABIO32)
	// padding is not specified in linux/eventpoll.h but added to conform to the
	// alignment requirements of EABI
	int32_t padFd;
#endif
#if defined(__powerpc64__) || defined(__s390x__) || (defined(__riscv_xlen) && __riscv_xlen == 64) \

	// Add floating point registers F0-F31.
	for i := 0; i < 31; i += 2 {
		reg := fmt.Sprintf("(F%d, F%d)", i, i+1)
		l.add2("FSTPD", "FLDPD", reg, 16)
	}
	if l.stack%16 != 0 {
		l.stack += 8 // SP needs 16-byte alignment
	}

	// allocate frame, save PC of interrupted instruction (in LR)
	p("MOVD R30, %d(RSP)", -l.stack)
	p("SUB $%d, RSP", l.stack)
	p("MOVD R29, -8(RSP)") // save frame pointer (only used on Linux)

          0) {
    // TF_STRING and TF_RESOURCE tensors have a different representation in
    // TF_Tensor than they do in tensorflow::Tensor. So a copy here is a waste
    // (any alignment requirements will be taken care of by TF_TensorToTensor
    // and TF_TensorFromTensor).
    //
    // Other types have the same representation, so copy only if it is safe to
    // do so.

	}

	return deviceHints
}

func (m *ManagerImpl) deviceHasTopologyAlignment(resource string) bool {
	// If any device has Topology NUMANodes available, we assume they care about alignment.
	for _, device := range m.allDevices[resource] {
		if device.Topology != nil && len(device.Topology.Nodes) > 0 {
			return true
		}
	}
	return false
}

    : stream_executor_(stream_executor) {}

XlaDeviceAllocator::~XlaDeviceAllocator() = default;

std::string XlaDeviceAllocator::Name() { return "xla"; }

void* XlaDeviceAllocator::AllocateRaw(size_t alignment, size_t num_bytes) {
  // We always return an empty XlaTensor object, encoded as an opaque tagged
  // pointer. We can return an empty object and ignore num_bytes here because we

var data = []entry{
	{"empty.input", "empty.golden", idempotent},
	{"comments.input", "comments.golden", 0},
	{"comments.input", "comments.x", export},
	{"comments2.input", "comments2.golden", idempotent},
	{"alignment.input", "alignment.golden", idempotent},
	{"linebreaks.input", "linebreaks.golden", idempotent},
	{"expressions.input", "expressions.golden", idempotent},
	{"expressions.input", "expressions.raw", rawFormat | idempotent},

./s3-check-md5 -versions -access-key minio -secret-key minio123 -endpoint http://127.0.0.1:9006/ -bucket olockbucket

# additional tests for encryption object alignment
go install -v github.com/minio/multipart-debug@latest

upload_id=$(multipart-debug --endpoint 127.0.0.1:9001 --accesskey minio --secretkey minio123 multipart new --bucket bucket --object new-test-encrypted-object --encrypt)