def metadata2 = immutable.asMutable()
        metadata2.variants.size() == 2
        metadata2.variants[0].name == "api"
        metadata2.variants[0].files.size() == 2
        metadata2.variants[1].name == "runtime"
        metadata2.variants[1].files.size() == 1

        def immutable2 = metadata2.asImmutable()
        immutable2.variants.size() == 2
        immutable2.variants[0].name == "api"

    new NullPointerTester().testAllPublicInstanceMethods(new AtomicDoubleArray(1));
  }

  /** constructor creates array of given size with all elements zero */
  public void testConstructor() {
    AtomicDoubleArray aa = new AtomicDoubleArray(SIZE);
    for (int i = 0; i < SIZE; i++) {
      assertBitEquals(0.0, aa.get(i));
    }
  }

  /** constructor with null array throws NPE */
  public void testConstructor2NPE() {

  lhs_transpose.reserve(dnums.lhs_rhs_out.size() + dnums.lhs_out.size() +
                        dnums.lhs_rhs.size());
  rhs_transpose.reserve(dnums.lhs_rhs_out.size() + dnums.rhs_out.size() +
                        dnums.lhs_rhs.size());
  out_transpose.reserve(dnums.lhs_rhs_out.size() + dnums.lhs_out.size() +
                        dnums.rhs_out.size());
  // Generate transpose matrix for B0,...,Bn

                * element(unresolved4, [], content.size = 0) -> FromOverlay(documentNode=element(unresolved4, [], content.size = 0))
            * element(configuring, [], content.size = 7) -> MergedElements(underlayElement=element(configuring, [], content.size = 4), overlayElement=element(configuring, [], content.size = 4))
                * element(unresolved2, [], content.size = 0) -> FromUnderlay(documentNode=element(unresolved2, [], content.size = 0))

        node_names.size(), ", #data_types ", node_dtypes.size(), ")"));
  }

  if (!node_shapes.empty() && node_names.size() != node_shapes.size()) {
    return errors::InvalidArgument(absl::StrCat(
        "Length of input node array and data shape doesn't match (#arrays ",
        node_names.size(), ", #input_shapes ", node_shapes.size(), ")"));
  }

		return oh.ImageBase
	}
	return 0
}

func (x *peExe) ReadData(addr, size uint64) ([]byte, error) {
	addr -= x.imageBase()
	for _, sect := range x.f.Sections {
		if uint64(sect.VirtualAddress) <= addr && addr <= uint64(sect.VirtualAddress+sect.Size-1) {
			n := uint64(sect.VirtualAddress+sect.Size) - addr
			if n > size {
				n = size
			}
			return saferio.ReadDataAt(sect, n, int64(addr-uint64(sect.VirtualAddress)))

			kind:   kind,
			offset: offset + uintptr(i)*size,
			size:   size,
			ireg:   a.iregs,
		})
		a.iregs++
	}
	return true
}

// assignFloatN assigns n values to registers, each "size" bytes large,
// from the data at [offset, offset+n*size) in memory. Each value at
// [offset+i*size, offset+(i+1)*size) for i < n is assigned to the
// next n floating-point registers.
//

  se_.allocate = [](const SP_Device* const device, uint64_t size,
                    int64_t memory_space, SP_DeviceMemoryBase* const mem) {
    mem->struct_size = SP_DEVICE_MEMORY_BASE_STRUCT_SIZE;
    mem->opaque = malloc(size);
    mem->size = size;
  };
  se_.deallocate = [](const SP_Device* const device,
                      SP_DeviceMemoryBase* const mem) {
    EXPECT_EQ(mem->size, 2 * sizeof(int));
    free(mem->opaque);

  ASSERT_EQ(output_model->subgraphs()->size(), model_->subgraphs()->size());
  const auto quantized_graph = output_model->subgraphs()->Get(0);
  // A dequantize op should be added.
  ASSERT_EQ(quantized_graph->operators()->size(),
            model_->subgraphs()->Get(0)->operators()->size() + 1);
  int num_custom_ops_found = 0;
  for (size_t i = 0; i < quantized_graph->operators()->size(); ++i) {

  // Max size is halved due to indexing into double-sized alternatingKeysAndValues
  private static final int BYTE_MAX_SIZE = 1 << (Byte.SIZE - 1); // 2^7 = 128
  private static final int SHORT_MAX_SIZE = 1 << (Short.SIZE - 1); // 2^15 = 32_768

  private static final int BYTE_MASK = (1 << Byte.SIZE) - 1; // 2^8 - 1 = 255
  private static final int SHORT_MASK = (1 << Short.SIZE) - 1; // 2^16 - 1 = 65_535