// consuming a large amount of data.  For example, given a graph X -> Y
        // -> Size -> Z, where the possible clustering is [{X, Y, Size}, {Z}] or
        // [{X, Y}, {Size, Z}], the better clustering is Size with Y because the
        // output of size will be a small tensor while Y is a potentially large
        // tensor that must be computed and possible transposed/copied before

                          std::unique_ptr<size_t[]>* lens) {
  ptrs->reset(new const void*[v.size()]);
  lens->reset(new size_t[v.size()]);
  for (size_t i = 0; i < v.size(); ++i) {
    (*ptrs)[i] = v[i].data();
    (*lens)[i] = v[i].size();
  }
}

class CApiColocationTest : public ::testing::Test {
 protected:

const (
	// minPhysPageSize is a lower-bound on the physical page size. The
	// true physical page size may be larger than this. In contrast,
	// sys.PhysPageSize is an upper-bound on the physical page size.
	minPhysPageSize = 4096

	// maxPhysPageSize is the maximum page size the runtime supports.
	maxPhysPageSize = 512 << 10

	// maxPhysHugePageSize sets an upper-bound on the maximum huge page size
	// that the runtime supports.

			0, 5, nil, errFileNameTooLong,
		},
		// Buffer size greater than object size. - 6
		{
			volume, "myobject", 0, 16,
			[]byte("hello, world"),
			io.ErrUnexpectedEOF,
		},
		// Reading from an offset success. - 7
		{
			volume, "myobject", 7, 5,
			[]byte("world"), nil,
		},
		// Reading from an object but buffer size greater. - 8
		{
			volume, "myobject",
			7, 8,

            public int getCount() {
              return backingEntry.getValue().size();
            }
          };
        }
      };
    }

    @Override
    int distinctElements() {
      return multimap.asMap().size();
    }

    @Override
    public int size() {
      return multimap.size();
    }

    @Override

      multimap.entries().forEach(entry -> consumer.accept(entry.getKey()));
    }

    @Override
    int distinctElements() {
      return multimap.asMap().size();
    }

    @Override
    public int size() {
      return multimap.size();
    }

    @Override
    public boolean contains(@CheckForNull Object element) {
      return multimap.containsKey(element);
    }

  ASSERT_THAT(model.subgraphs, SizeIs(expected_model.subgraphs.size()));
  for (size_t subgraph_idx = 0; subgraph_idx < model.subgraphs.size();
       subgraph_idx++) {
    const auto graph = model.subgraphs[subgraph_idx].get();
    const auto expected_graph = expected_model.subgraphs[subgraph_idx].get();
    for (auto& op : graph->operators) {
      for (int idx = 0; idx < op->inputs.size(); idx++) {
        if (op->inputs[idx] < 0) {

			end = 1
		}

		if ctxt.UseBASEntries {
			listSym.WriteInt(ctxt, listSym.Size, ctxt.Arch.PtrSize, int64(begin))
			listSym.WriteInt(ctxt, listSym.Size, ctxt.Arch.PtrSize, int64(end))
		} else {
			listSym.WriteCURelativeAddr(ctxt, listSym.Size, startPC, int64(begin))
			listSym.WriteCURelativeAddr(ctxt, listSym.Size, startPC, int64(end))
		}

		i += 2 * ctxt.Arch.PtrSize

	var size uintptr
	err := initializeProcThreadAttributeList(nil, maxAttrCount, 0, &size)
	if err != ERROR_INSUFFICIENT_BUFFER {
		if err == nil {
			return nil, errorspkg.New("unable to query buffer size from InitializeProcThreadAttributeList")
		}
		return nil, err
	}
	// size is guaranteed to be ≥1 by initializeProcThreadAttributeList.

		// dirtyalloc was previously generated by
		// the above newarray(t.Bucket, int(nbuckets))
		// but may not be empty.
		buckets = dirtyalloc
		size := t.Bucket.Size_ * nbuckets
		if t.Bucket.Pointers() {
			memclrHasPointers(buckets, size)
		} else {
			memclrNoHeapPointers(buckets, size)
		}
	}

	if base != nbuckets {
		// We preallocated some overflow buckets.