}
		if e.sym < literalLengthOffset {
			be.baseline = uint32(e.sym)
			be.basebits = 0
		} else {
			if e.sym > 35 {
				return r.makeError(off, "FSE baseline symbol overflow")
			}
			idx := e.sym - literalLengthOffset
			basebits := literalLengthBase[idx]
			be.baseline = basebits & 0xffffff
			be.basebits = uint8(basebits >> 24)
		}
		baselineTable[i] = be
	}
	return nil
}

		ptliteral := &r.seqTables[seqLiteral][literalState]

		add, err := rbr.val(ptoffset.basebits)
		if err != nil {
			return err
		}
		offset := ptoffset.baseline + add

		add, err = rbr.val(ptmatch.basebits)
		if err != nil {
			return err
		}
		match := ptmatch.baseline + add

		add, err = rbr.val(ptliteral.basebits)
		if err != nil {
			return err
		}
		literal := ptliteral.baseline + add

import (
	"runtime/internal/sys"
)

// pageBits is a bitmap representing one bit per page in a palloc chunk.
type pageBits [pallocChunkPages / 64]uint64

// get returns the value of the i'th bit in the bitmap.
func (b *pageBits) get(i uint) uint {
	return uint((b[i/64] >> (i % 64)) & 1)
}

// block64 returns the 64-bit aligned block of bits containing the i'th bit.
func (b *pageBits) block64(i uint) uint64 {
	return b[i/64]
}

   */
  static void checkAvalanche(HashFunction function, int trials, double epsilon) {
    Random rand = new Random(0);
    int keyBits = 32;
    int hashBits = function.bits();
    for (int i = 0; i < keyBits; i++) {
      int[] same = new int[hashBits];
      int[] diff = new int[hashBits];
      // go through trials to compute probability
      for (int j = 0; j < trials; j++) {
        int key1 = rand.nextInt();

            }
            int hashBits = prototype.getDigestLength() * 8;
            try {
                Object ignored = prototype.clone();
                return new CloningMessageDigestHashFunction(prototype, hashBits);
            } catch (CloneNotSupportedException e) {
                return new RegularMessageDigestHashFunction(algorithm, hashBits);
            }
        }

        @Override

	bitmask.IterateBitMasks(numaNodes, func(mask bitmask.BitMask) {
		maskBits := mask.GetBits()
		singleNUMAHint := len(maskBits) == 1

		totalFreeSize := map[v1.ResourceName]uint64{}
		totalAllocatableSize := map[v1.ResourceName]uint64{}
		// calculate total free and allocatable memory for the node mask
		for _, nodeID := range maskBits {
			for resourceName := range requestedResources {

	// stop things from getting too large.
	maxFlateBlockTokens = 1 << 14
	maxStoreBlockSize   = 65535
	hashBits            = 17 // After 17 performance degrades
	hashSize            = 1 << hashBits
	hashMask            = (1 << hashBits) - 1
	maxHashOffset       = 1 << 24

	skipNever = math.MaxInt32
)

type compressionLevel struct {
	level, good, lazy, nice, chain, fastSkipHashing int

	n := len(b)
	runes := make([]rune, 0, 256)
	if len(fd.lastbits) > 0 {
		b = append(fd.lastbits, b...)
		fd.lastbits = nil

	}
	for len(b) >= utf8.UTFMax || utf8.FullRune(b) {
		r, l := utf8.DecodeRune(b)
		runes = append(runes, r)
		b = b[l:]
	}
	if len(b) > 0 {
		fd.lastbits = make([]byte, len(b))
		copy(fd.lastbits, b)
	}
	// syscall.WriteConsole seems to fail, if given large buffer.

// SummarizeSlow is a slow but more obviously correct implementation
// of (*pallocBits).summarize. Used for testing.
func SummarizeSlow(b *PallocBits) PallocSum {
	var start, most, end uint

	const N = uint(len(b)) * 64
	for start < N && (*pageBits)(b).get(start) == 0 {
		start++
	}
	for end < N && (*pageBits)(b).get(N-end-1) == 0 {
		end++
	}

// It returns new affinity mask.
func removeOneCPU(mask uintptr) (uintptr, error) {
	if mask == 0 {
		return 0, fmt.Errorf("cpu affinity mask is empty")
	}
	maskbits := int(unsafe.Sizeof(mask) * 8)
	for i := 0; i < maskbits; i++ {
		newmask := mask & ^(1 << uint(i))
		if newmask != mask {
			return newmask, nil
		}

	}
	panic("not reached")
}