if prec >= prec0 {
		return x.Float()
	}
	// prec < prec0

	// determine bit 0, rounding, and sticky bit, and result bits z
	var bit0, rbit, sbit uint
	var z Bits
	r := max - int(prec)
	for _, b := range x {
		switch {
		case b == r:
			rbit = 1
		case b < r:
			sbit = 1
		default:
			// b > r
			if b == r+1 {
				bit0 = 1
			}
			z = append(z, b)
		}
	}

	r := uint(bits - z.prec - 1) // rounding bit position; r >= 0
	rbit := z.mant.bit(r) & 1    // rounding bit; be safe and ensure it's a single bit
	// The sticky bit is only needed for rounding ToNearestEven
	// or when the rounding bit is zero. Avoid computation otherwise.
	if sbit == 0 && (rbit == 0 || z.mode == ToNearestEven) {
		sbit = z.mant.sticky(r)
	}
	sbit &= 1 // be safe and ensure it's a single bit

		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)
		D := bbig.Dec(bD)
		P := bbig.Dec(bP)
		Q := bbig.Dec(bQ)
		Dp := bbig.Dec(bDp)
		Dq := bbig.Dec(bDq)
		Qinv := bbig.Dec(bQinv)
		e64 := E.Int64()
		if !E.IsInt64() || int64(int(e64)) != e64 {

Christian Sigg <******@****.***> 1714640622 -0700

	if boring.Enabled && rand == boring.RandReader {
		x, y, d, err := boring.GenerateKeyECDSA(c.Params().Name)
		if err != nil {
			return nil, err
		}
		return &PrivateKey{PublicKey: PublicKey{Curve: c, X: bbig.Dec(x), Y: bbig.Dec(y)}, D: bbig.Dec(d)}, nil
	}
	boring.UnreachableExceptTests()

	switch c.Params() {
	case elliptic.P224().Params():
		return generateNISTEC(p224(), rand)
	case elliptic.P256().Params():

// and do not cause unnecessary save/restore of the CA bit.
//
// This is an example of why CarryChainTail priority must be lower
// (earlier in the block) than Memory. f[0]=f1 could be scheduled
// after the first two lower 64 bit limb adds, but before either
// high 64 bit limbs are added.
//
// This is what happened on PPC64 when compiling

}

// markBits provides access to the mark bit for an object in the heap.
// bytep points to the byte holding the mark bit.
// mask is a byte with a single bit set that can be &ed with *bytep
// to see if the bit has been set.
// *m.byte&m.mask != 0 indicates the mark bit is set.
// index can be used along with span information to generate
// the address of the object in the heap.

//    register (R27).
//  - All 32-bit Ops will zero the upper 32 bits of the destination register.

// Suffixes encode the bit width of various instructions.
// D (double word) = 64 bit
// W (word)        = 32 bit
// H (half word)   = 16 bit
// HU              = 16 bit unsigned
// B (byte)        = 8 bit
// BU              = 8 bit unsigned
// S (single)      = 32 bit float
// D (double)      = 64 bit float

    switch (itype.getWidth()) {
      case 1:
        return tflite::TensorType_BOOL;
      case 4:
        if (itype.isUnsigned())
          llvm_unreachable("invalid unsigned 4bit integer Type in conversion");
        else
          return tflite::TensorType_INT4;
      case 8:
        if (itype.isUnsigned())
          return tflite::TensorType_UINT8;
        else

		old := x
		v := atomic.Or32(&x, 1<<i)
		if r := (uint32(1) << (i + 1)) - 1; x != r || v != old {
			t.Fatalf("setting bit %#x: want %#x, got new %#x and old %#v", uint32(1<<i), r, x, v)
		}
	}

	// Start with every bit in array set to 0.
	a := make([]uint32, 1<<12)

	// Set every bit in array bit-by-bit in different goroutines.
	done := make(chan bool)
	for i := 0; i < 32; i++ {
		m := uint32(1 << i)
		go func() {