// it. To preserve FIFO order and failure atomicity of rejected execution when the same
      // Runnable is executed more than once, allocate a wrapper that we know is safe to remove by
      // object identity.
      // A data structure that returned a removal handle from add() would allow eliminating this
      // allocation.
      submittedTask =

  TF_VariableInfo() = delete;
  // TF_VariableInfo is constructed here by TensorFlow, and will be passed to
  // plugin as a opaque pointer. Plugin will need to call C APIs below to
  // operate on TF_VariableInfo (such as allocate temp tensor for the `var` held
  // by the underlying tensorflow::VariableInfo.
  TF_VariableInfo(int index, const std::string& name, tensorflow::Var* var) {
    var_info = tensorflow::VariableInfo{index, name, var};
  }

    llvm::SmallVector<MemoryEffects::EffectInstance, 4> effects;
    mem_interface.getEffectsOnValue(value, effects);
    for (auto& effect_instance : effects) {
      if (isa<MemoryEffects::Allocate>(effect_instance.getEffect())) {
        return true;
      }
    }
  }
  return false;
}

}  // namespace

constexpr int64_t ResourceAliasAnalysisInfo::kUnknownResourceId;

		d = new(poolChainElt)
		d.vals = make([]eface, initSize)
		c.head = d
		c.tail.Store(d)
	}

	if d.pushHead(val) {
		return
	}

	// The current dequeue is full. Allocate a new one of twice
	// the size.
	newSize := len(d.vals) * 2
	if newSize >= dequeueLimit {
		// Can't make it any bigger.
		newSize = dequeueLimit
	}

	d2 := &poolChainElt{}
	d2.prev.Store(d)

		// Fixed (not loaded from a dictionary) type.
		ta := ir.NewTypeAssertExpr(base.Pos, c, toType)
		ta.SetOp(ir.ODOTTYPE2)
		// Allocate a descriptor for this conversion to pass to the runtime.
		ta.Descriptor = makeTypeAssertDescriptor(toType, true)
		rhs = ta
	} else {
		ta := ir.NewDynamicTypeAssertExpr(base.Pos, ir.ODYNAMICDOTTYPE2, c, n.TypeWord)

// All ParseXXX functions allow the input string to escape to the error value.
// This hurts strconv.ParseXXX(string(b)) calls where b is []byte since
// the conversion from []byte must allocate a string on the heap.
// If we assume errors are infrequent, then we can avoid escaping the input
// back to the output by copying it first. This allows the compiler to call

}

// Go invokes the function asynchronously. It returns the [Call] structure representing
// the invocation. The done channel will signal when the call is complete by returning
// the same Call object. If done is nil, Go will allocate a new channel.
// If non-nil, done must be buffered or Go will deliberately crash.
func (client *Client) Go(serviceMethod string, args any, reply any, done chan *Call) *Call {
	call := new(Call)

        final FileInputStream is = InputStreamUtil.create(file);
        try {
            final FileChannel channel = is.getChannel();
            final ByteBuffer buffer = ByteBuffer.allocate((int) ChannelUtil.size(channel));
            ChannelUtil.read(channel, buffer);
            return buffer.array();
        } finally {
            CloseableUtil.close(is);
        }
    }

    /**

	}
}

func TestRepairLeak(t *testing.T) {
	clearMetrics()

	pr, _ := net.ParsePortRange("100-200")
	previous, err := portallocator.NewInMemory(*pr)
	if err != nil {
		t.Fatal(err)
	}
	previous.Allocate(111)

	var dst api.RangeAllocation
	err = previous.Snapshot(&dst)
	if err != nil {
		t.Fatal(err)
	}

	fakeClient := fake.NewSimpleClientset()
	registry := &mockRangeRegistry{

func (r *Reader) compressedBlock(blockSize int) error {
	if len(r.compressedBuf) >= blockSize {
		r.compressedBuf = r.compressedBuf[:blockSize]
	} else {
		// We know that blockSize <= 128K,
		// so this won't allocate an enormous amount.
		need := blockSize - len(r.compressedBuf)
		r.compressedBuf = append(r.compressedBuf, make([]byte, need)...)
	}

	if _, err := io.ReadFull(r.r, r.compressedBuf); err != nil {