}

    private Base16Encoding(Alphabet alphabet) {
      super(alphabet, null);
      checkArgument(alphabet.chars.length == 16);
      for (int i = 0; i < 256; ++i) {
        encoding[i] = alphabet.encode(i >>> 4);
        encoding[i | 0x100] = alphabet.encode(i & 0xF);
      }
    }

    @Override

		} else {
			p.errorf("bad addr size for DATA argument: %d", sz)
		}
	}
}

// asmGlobl assembles a GLOBL pseudo-op.
// GLOBL shifts<>(SB),8,$256
// GLOBL shifts<>(SB),$256
func (p *Parser) asmGlobl(operands [][]lex.Token) {
	if len(operands) != 2 && len(operands) != 3 {
		p.errorf("expect two or three operands for GLOBL")
		return
	}

      bytesIn.writeByte(0x0d) // Literal value (len = 13)
      bytesIn.writeUtf8("custom-header")
    }
    hpackReader!!.readHeaders()
    assertThat(hpackReader!!.headerCount).isEqualTo(256)
  }

  @Test
  fun huffmanDecodingSupported() {
    bytesIn.writeByte(0x44) // == Literal indexed ==
    // Indexed name (idx = 4) -> :path
    bytesIn.writeByte(0x8c) // Literal value Huffman encoded 12 bytes

            Version version,
            String fieldName,
            String sourceHint,
            String message,
            InputLocationTracker tracker) {
        StringBuilder buffer = new StringBuilder(256);
        buffer.append('\'').append(fieldName).append('\'');

        if (sourceHint != null) {
            buffer.append(" for ").append(sourceHint);
        }

pkg debug/macho, const FlagDeadStrippableDylib uint32
pkg debug/macho, const FlagDyldLink = 4
pkg debug/macho, const FlagDyldLink uint32
pkg debug/macho, const FlagForceFlat = 256
pkg debug/macho, const FlagForceFlat uint32
pkg debug/macho, const FlagHasTLVDescriptors = 8388608
pkg debug/macho, const FlagHasTLVDescriptors uint32
pkg debug/macho, const FlagIncrLink = 2

        // Create a smaller test file (1KB instead of 1MB)
        byte[] data = new byte[1024];
        for (int i = 0; i < data.length; i++) {
            data[i] = (byte) (i % 256);
        }

        // Create file and write data
        try (OutputStream out = file.openOutputStream(false)) {
            out.write(data);
        }

						splitDataShards := make([]byte, len(splitFilled[0]))
						for _, sh := range splitFilled {
							for i, v := range sh {
								splitDataShards[i] += v
							}
						}
						var hist [256]int
						for _, v := range splitDataShards {
							hist[v]++
						}

						for _, v := range hist[m.data-hasParity : m.shards] {
							if attempt > 0 {
								break
							}

func (o *ObjectInfo) EncryptedSize() int64 {
	size, err := sio.EncryptedSize(uint64(o.Size))
	if err != nil {
		// This cannot happen since AWS S3 allows parts to be 5GB at most
		// sio max. size is 256 TB
		reqInfo := (&logger.ReqInfo{}).AppendTags("size", strconv.FormatUint(size, 10))
		ctx := logger.SetReqInfo(GlobalContext, reqInfo)
		logger.CriticalIf(ctx, err)
	}
	return int64(size)
}

	// Read this many buffers ahead.
	compReadAheadBuffers = 5
	// Size of each buffer.
	compReadAheadBufSize = 1 << 20
	// Pad Encrypted+Compressed files to a multiple of this.
	compPadEncrypted = 256
	// Disable compressed file indices below this size
	compMinIndexSize = 8 << 20
)

// getkeyeparator - returns the separator to be used for
// persisting on drive.
//
// - ":" is used on non-windows platforms

// It is equivalent to SplitAfterN with a count of -1.
func SplitAfter(s, sep []byte) [][]byte {
	return genSplit(s, sep, len(sep), -1)
}

var asciiSpace = [256]uint8{'\t': 1, '\n': 1, '\v': 1, '\f': 1, '\r': 1, ' ': 1}

// Fields interprets s as a sequence of UTF-8-encoded code points.
// It splits the slice s around each instance of one or more consecutive white space