}
  int num_dims = dl_tensor->ndim;
  const int64_t* dims = dl_tensor->shape;
  void* data = dl_tensor->data;

  if (dl_tensor->byte_offset != 0) {
    status->status = tensorflow::errors::InvalidArgument(
        "Unsupported byte_offset (", dl_tensor->byte_offset,
        ") from DLPack, must be zero");
    return nullptr;
  }

  size_t total_bytes = dl_tensor->dtype.bits / 8;

            this.byteOffset = ( boHigh << 32 ) | boLow;

            int lHigh = SMBUtil.readInt4(buffer, bufferIndex + 12);
            int lLow = SMBUtil.readInt4(buffer, bufferIndex + 16);

            this.lengthInBytes = ( lHigh << 32 ) | lLow;
            return 20;
        }
        this.pid = SMBUtil.readInt2(buffer, bufferIndex);
        this.byteOffset = SMBUtil.readInt4(buffer, bufferIndex + 2);

                dst[dstIndex + ( 2 * i + 1 )] = (byte)0x43;
                dst[dstIndex + ( 2 * i + 2 )] = (byte)0x41;
            }
            dst[dstIndex + TYPE_OFFSET] = (byte)((( hexCode & 0xF0 ) >> 4 ) + 0x41 );
            dst[dstIndex + TYPE_OFFSET + 1] = (byte)(( hexCode & 0x0F ) + 0x41 );
        } catch( UnsupportedEncodingException uee ) {
        }

            dst[ dstIndex + ( 2 * i + 1 ) ] = (byte) 0x43;
            dst[ dstIndex + ( 2 * i + 2 ) ] = (byte) 0x41;
        }
        dst[ dstIndex + TYPE_OFFSET ] = (byte) ( ( ( this.hexCode & 0xF0 ) >> 4 ) + 0x41 );
        dst[ dstIndex + TYPE_OFFSET + 1 ] = (byte) ( ( this.hexCode & 0x0F ) + 0x41 );
        return SCOPE_OFFSET + writeScopeWireFormat(dst, dstIndex + SCOPE_OFFSET);
    }

                            const ArrayRef<int64_t> shape) {
  int64_t contiguous_offset = 0;
  int64_t base_offset = 1;
  for (auto [i, dimension] : llvm::reverse(llvm::zip_equal(indices, shape))) {
    contiguous_offset += base_offset * i;
    base_offset *= dimension;
  }

  return contiguous_offset;
}

// Performs transposition of a tensor represented as a contiguous element array.

				if b.uint8() != opPlusUconst {
					err = DecodeError{name, kid.Offset, "unexpected opcode"}
					goto Error
				}
				f.ByteOffset = int64(b.uint())
				if b.err != nil {
					err = b.err
					goto Error
				}
			case int64:
				f.ByteOffset = loc
			}

			f.Name, _ = kid.Val(AttrName).(string)
			f.ByteSize, _ = kid.Val(AttrByteSize).(int64)
			haveBitOffset := false

			continue
		}

		// Round off up to talign, assumed to be a power of 2.
		off = (off + talign - 1) &^ (talign - 1)

		if f.ByteOffset > off {
			fld, sizes = c.pad(fld, sizes, f.ByteOffset-off)
			off = f.ByteOffset
		}
		if f.ByteOffset < off {
			// Drop a packed field that we can't represent.
			continue
		}

		n := len(fld)
		fld = fld[0 : n+1]
		if name == "" {

			t.Fatalf("can't read type: %v", err)
		}
		s := typ.(*dwarf.StructType)
		for i := 0; i < len(s.Field); i++ {
			end := s.Field[i].ByteOffset + s.Field[i].Type.Size()
			var limit int64
			if i == len(s.Field)-1 {
				limit = s.Size()
			} else {
				limit = s.Field[i+1].ByteOffset
			}
			if end > limit {
				name := entry.Val(dwarf.AttrName).(string)

		{"QualType.Qual", Field, 0},
		{"QualType.Type", Field, 0},
		{"Reader", Type, 0},
		{"StructField", Type, 0},
		{"StructField.BitOffset", Field, 0},
		{"StructField.BitSize", Field, 0},
		{"StructField.ByteOffset", Field, 0},
		{"StructField.ByteSize", Field, 0},
		{"StructField.DataBitOffset", Field, 18},
		{"StructField.Name", Field, 0},
		{"StructField.Type", Field, 0},
		{"StructType", Type, 0},

pkg debug/dwarf, type StructField struct
pkg debug/dwarf, type StructField struct, BitOffset int64
pkg debug/dwarf, type StructField struct, BitSize int64
pkg debug/dwarf, type StructField struct, ByteOffset int64
pkg debug/dwarf, type StructField struct, ByteSize int64
pkg debug/dwarf, type StructField struct, Name string
pkg debug/dwarf, type StructField struct, Type Type
pkg debug/dwarf, type StructType struct