}
		return strconv.ParseFloat(val, 64)
	case "float32-bits":
		if kind != token.INT {
			return nil, fmt.Errorf("integer literal required for math.Float32frombits type")
		}
		bits, err := parseUint(val, "uint32")
		if err != nil {
			return nil, err
		}
		return math.Float32frombits(bits.(uint32)), nil
	case "float64-bits":
		if kind != token.FLOAT && kind != token.INT {

		// Check hugepage preserving behavior.
		bits := uint(PhysHugePageSize / uintptr(PageSize))
		if bits < PallocChunkPages {
			tests["PreserveHugePageBottom"] = test{
				alloc: []BitRange{{bits + 2, PallocChunkPages - (bits + 2)}},
				min:   1,
				max:   3, // Make it so that max would have us try to break the huge page.
				want:  BitRange{0, bits + 2},
			}
			if 3*bits < PallocChunkPages {

    long numeratorAccum = n;
    long denominatorAccum = 1;

    int bits = LongMath.log2(n, CEILING);

    int numeratorBits = bits;

    for (int i = 1; i < k; i++) {
      int p = n - i;
      int q = i + 1;

      // log2(p) >= bits - 1, because p >= n/2

      if (numeratorBits + bits >= Long.SIZE - 1) {
        // The numerator is as big as it can get without risking overflow.

func GenerateMultiPrimeKey(random io.Reader, nprimes int, bits int) (*PrivateKey, error) {
	randutil.MaybeReadByte(random)

	if boring.Enabled && random == boring.RandReader && nprimes == 2 &&
		(bits == 2048 || bits == 3072 || bits == 4096) {
		bN, bE, bD, bP, bQ, bDp, bDq, bQinv, err := boring.GenerateKeyRSA(bits)
		if err != nil {
			return nil, err
		}
		N := bbig.Dec(bN)
		E := bbig.Dec(bE)

	if h.valid+valid <= ptrBits {
		// Fast path - just accumulate the bits.
		h.mask |= bits << h.valid
		h.valid += valid
		return h
	}
	// Too many bits to fit in this word. Write the current word
	// out and move on to the next word.

	data := h.mask | bits<<h.valid       // mask for this word
	h.mask = bits >> (ptrBits - h.valid) // leftover for next word

	Op       Op       // Opcode mnemonic
	Opcode   uint32   // Encoded opcode bits, left aligned (first byte is Opcode>>24, etc)
	Args     Args     // Instruction arguments, in Intel order
	Mode     int      // processor mode in bits: 16, 32, or 64
	AddrSize int      // address size in bits: 16, 32, or 64
	DataSize int      // operand size in bits: 16, 32, or 64
	MemBytes int      // size of memory argument in bytes: 1, 2, 4, 8, 16, and so on.

// or if x>>28 != 0xF and value>>28 == 0.
// If x matches the format, then the rest of the fields describe how to interpret x.
// The opBits describe bits that should be extracted from x and added to the opcode.
// For example opBits = 0x1234 means that the value
//
//	(2 bits at offset 1) followed by (4 bits at offset 3)
//
// should be added to op.
// Finally the args describe how to decode the instruction arguments.

}

// isInBounds returns whether the element is within the expected bit size bounds
// after a light reduction.
func isInBounds(x *Element) bool {
	return bits.Len64(x.l0) <= 52 &&
		bits.Len64(x.l1) <= 52 &&
		bits.Len64(x.l2) <= 52 &&
		bits.Len64(x.l3) <= 52 &&
		bits.Len64(x.l4) <= 52
}

func TestMultiplyDistributesOverAdd(t *testing.T) {
	multiplyDistributesOverAdd := func(x, y, z Element) bool {

 	goto no_more_room;
diff --git a/string/bits/string2.h b/string/bits/string2.h
index c9bf593..f461fc1 100644
--- a/string/bits/string2.h
+++ b/string/bits/string2.h
@@ -47,29 +47,7 @@
 #endif
 
 #if _STRING_ARCH_unaligned
-/* If we can do unaligned memory accesses we must know the endianess.  */
-# include <endian.h>
 # include <bits/types.h>
-
-# if __BYTE_ORDER == __LITTLE_ENDIAN

	var b uint64
	_, b = bits.Sub64(x[0], p256P[0], b)
	_, b = bits.Sub64(x[1], p256P[1], b)
	_, b = bits.Sub64(x[2], p256P[2], b)
	_, b = bits.Sub64(x[3], p256P[3], b)
	return int(b)
}

// p256Add sets res = x + y.
func p256Add(res, x, y *p256Element) {
	var c, b uint64
	t1 := make([]uint64, 4)
	t1[0], c = bits.Add64(x[0], y[0], 0)
	t1[1], c = bits.Add64(x[1], y[1], c)