}
            }
            for (j = 0; j < 24; ++j) {
                if (pcr[pc2[j]] != 0) {
                    kn[m] |= bigbyte[j];
                }
                if (pcr[pc2[j + 24]] != 0) {
                    kn[n] |= bigbyte[j];
                }
            }
        }
        cookey(kn, KnL);
    }

    private void cookey(final int[] raw, final int KnL[]) {

}

// BenchmarkPutObject100KbErasure - Benchmark Erasure.PutObject() for object size of 100KB.
func BenchmarkPutObject100KbErasure(b *testing.B) {
	benchmarkPutObject(b, "Erasure", 100*humanize.KiByte)
}

// BenchmarkPutObject1MbFS - Benchmark FS.PutObject() for object size of 1MB.
func BenchmarkPutObject1MbFS(b *testing.B) {
	benchmarkPutObject(b, "FS", 1*humanize.MiByte)
}

	if partStart != 1 {
		t.Fatalf("Test: expected %d, got %d", 1, partStart)
	}
}

func TestGetDecryptedRange(t *testing.T) {
	var (
		pkgSz     = int64(64) * humanize.KiByte
		minPartSz = int64(5) * humanize.MiByte
		maxPartSz = int64(5) * humanize.GiByte

		getEncSize = func(s int64) int64 {
			v, _ := sio.EncryptedSize(uint64(s))
			return int64(v)
		}
		udMap = func(isMulti bool) map[string]string {

	{"BETWEEN_1024B_AND_1_MB", humanize.KiByte, humanize.MiByte - 1},
	{"BETWEEN_1_MB_AND_10_MB", humanize.MiByte, humanize.MiByte*10 - 1},
	{"BETWEEN_10_MB_AND_64_MB", humanize.MiByte * 10, humanize.MiByte*64 - 1},
	{"BETWEEN_64_MB_AND_128_MB", humanize.MiByte * 64, humanize.MiByte*128 - 1},
	{"BETWEEN_128_MB_AND_512_MB", humanize.MiByte * 128, humanize.MiByte*512 - 1},

			objSize: 101 * humanize.MiByte,
			want:    false,
		},
		{
			filter:  fiLt,
			objSize: 99 * humanize.MiByte,
			want:    true,
		},
		{
			filter:  fiGt,
			objSize: 1*humanize.MiByte - 1,
			want:    false,
		},
		{
			filter:  fiGt,
			objSize: 1*humanize.MiByte + 1,
			want:    true,
		},
		{
			filter:  fiLtAndGt,
			objSize: 1*humanize.MiByte - 1,
			want:    false,

		name     string
		dataSize int64
	}{
		{"4KiB", 4 * humanize.KiByte},
		{"64KiB", 64 * humanize.KiByte},
		{"128KiB", 128 * humanize.KiByte},
		{"1MiB", 1 * humanize.MiByte},
		{"5MiB", 5 * humanize.MiByte},
		{"10MiB", 10 * humanize.MiByte},
		{"5MiB-1KiB", 5*humanize.MiByte - 1*humanize.KiByte},
		{"10MiB-1Kib", 10*humanize.MiByte - 1*humanize.KiByte},
	}

	for _, test := range tests {

                Arguments.of(0L, ScaleUnit.GIGABYTE, "0 GB"),

                // 5 bytes
                Arguments.of(5L, null, "5 B"),
                Arguments.of(5L, ScaleUnit.BYTE, "5 B"),
                Arguments.of(5L, ScaleUnit.KILOBYTE, "0 kB"),
                Arguments.of(5L, ScaleUnit.MEGABYTE, "0 MB"),
                Arguments.of(5L, ScaleUnit.GIGABYTE, "0 GB"),

                // 49 bytes

        assertEquals("0 GB", format.format(0L, ScaleUnit.GIGABYTE));

        assertEquals("5 B", format.format(5L));
        assertEquals("5 B", format.format(5L, ScaleUnit.BYTE));
        assertEquals("0 kB", format.format(5L, ScaleUnit.KILOBYTE));
        assertEquals("0 MB", format.format(5L, ScaleUnit.MEGABYTE));
        assertEquals("0 GB", format.format(5L, ScaleUnit.GIGABYTE));

        assertEquals("49 B", format.format(49L));

                if (size < 0L) {
                    throw new IllegalArgumentException("file size cannot be negative: " + size);
                }

                if (size >= GIGABYTE.bytes()) {
                    return GIGABYTE;
                } else if (size >= MEGABYTE.bytes()) {
                    return MEGABYTE;
                } else if (size >= KILOBYTE.bytes()) {
                    return KILOBYTE;

		// part size 2MiB, total size 4MiB
		{4 * humanize.MiByte, 2 * humanize.MiByte, 1, 2 * humanize.MiByte},
		{4 * humanize.MiByte, 2 * humanize.MiByte, 2, 2 * humanize.MiByte},
		{4 * humanize.MiByte, 2 * humanize.MiByte, 3, 0},
		// part size 2MiB, total size 5MiB
		{5 * humanize.MiByte, 2 * humanize.MiByte, 1, 2 * humanize.MiByte},
		{5 * humanize.MiByte, 2 * humanize.MiByte, 2, 2 * humanize.MiByte},