// Check if device coordinate is outside of topology mesh shape bounds.
bool DeviceCoordinateOutOfBound(int x, int y, int z, int core, int bound_x,
                                int bound_y, int bound_z, int bound_core) {
  return x < 0 || x >= bound_x || y < 0 || y >= bound_y || z < 0 ||
         z >= bound_z || core < 0 || core >= bound_core;
}

// Create error message for an out of bound device coordinate.

	// Calculate the quotient and cosequences using Collins' stopping condition.
	// Note that overflow of a Word is not possible when computing the remainder
	// sequence and cosequences since the cosequence size is bounded by the input size.
	// See section 4.2 of Jebelean for details.
	for a2 >= v2 && a1-a2 >= v1+v2 {
		q, r := a1/a2, a1%a2
		a1, a2 = a2, r
		u0, u1, u2 = u1, u2, u1+q*u2
		v0, v1, v2 = v1, v2, v1+q*v2

		return
	}

	mk := as.Y.(*ir.MakeExpr)
	if mk.Esc() == ir.EscNone || mk.Len == nil || mk.Cap != nil {
		return
	}
	mk.SetOp(ir.OMAKESLICECOPY)
	mk.Cap = cp.Y
	// Set bounded when m = OMAKESLICE([]T, len(s)); OCOPY(m, s)
	mk.SetBounded(mk.Len.Op() == ir.OLEN && ir.SameSafeExpr(mk.Len.(*ir.UnaryExpr).X, cp.Y))
	as.Y = typecheck.Expr(mk)
	s[1] = nil // remove separate copy call
}

			maxVols:      4,
			test:         "already-mounted AzureDisk volumes are always ok to allow",
		},
		{
			newPod:       splitAzureDiskPod,
			existingPods: []*v1.Pod{oneAzureDiskPod, oneAzureDiskPod, onePVCPod(azureDiskVolumeFilterType)},
			filterName:   azureDiskVolumeFilterType,
			maxVols:      3,
			test:         "the same AzureDisk volumes are not counted multiple times",
		},
		{

			// considered "1.0", for p == 0, the mantissa value m is >= 0.5.
			// If m > 0.5, it is rounded up to 1.0; i.e., the smallest denormal.
			// If m == 0.5, it is rounded down to even, i.e., 0.0.
			// If p < 0, the mantissa value m is <= "0.25" which is never rounded up.
			if p < 0 /* m <= 0.25 */ || p == 0 && x.mant.sticky(uint(len(x.mant))*_W-1) == 0 /* m == 0.5 */ {
				// underflow to ±0

    </div>
  </div>
</nav>

<!-- Sign in dialog -->
<dialog id="dialog" class="w-full sm:w-2/3 lg:w-1/3 border rounded-md shadow-xl">
  <div class="flex min-h-full flex-col justify-center px-6 py-12 lg:px-8">
    <div class="absolute right-0 top-0 hidden pr-4 pt-4 sm:block">
      <button id="close-dialog" type="button" class="rounded-md bg-white text-gray-400 hover:text-gray-500 focus:outline-none focus:ring-2 focus:ring-blue-500 focus:ring-offset-2">

      int result = BigIntegerMath.log2(x, HALF_UP);
      BigInteger x2 = x.pow(2);
      // x^2 < 2^(2 * result + 1), or else we would have rounded up
      assertTrue(ZERO.setBit(2 * result + 1).compareTo(x2) > 0);
      // x^2 >= 2^(2 * result - 1), or else we would have rounded down
      assertTrue(result == 0 || ZERO.setBit(2 * result - 1).compareTo(x2) <= 0);
    }
  }

  public void testLog2HalfDown() {

    }
  }

  /**
   * Returns the {@code int} value that is equal to {@code x} rounded with the specified rounding
   * mode, if possible.
   *
   * @throws ArithmeticException if
   *     <ul>
   *       <li>{@code x} is infinite or NaN
   *       <li>{@code x}, after being rounded to a mathematical integer using the specified rounding

    }
  }

  /**
   * Returns the {@code int} value that is equal to {@code x} rounded with the specified rounding
   * mode, if possible.
   *
   * @throws ArithmeticException if
   *     <ul>
   *       <li>{@code x} is infinite or NaN
   *       <li>{@code x}, after being rounded to a mathematical integer using the specified rounding

	// so it should work as we expect. (There's no direct way to round a Rat.)
	rounded, err := strconv.ParseInt(precise.FloatString(0), 10, 64)
	if err != nil {
		panic(err)
	}

	// If we rounded up, `rounded` may be equal to 2ᵈ, so we perform a final reduction.
	return uint16(rounded % (1 << d))
}

func TestCompress(t *testing.T) {
	for d := 1; d < 12; d++ {
		for n := 0; n < q; n++ {