//	1/3    0    false    0       (0.333... rounded)
//	1/4    2    true     0.25
//	1/6    1    false    0.2     (0.166... rounded)
func (x *Rat) FloatPrec() (n int, exact bool) {
	// Determine q and largest p2, p5 such that d = q·2^p2·5^p5.
	// The results n, exact are:
	//
	//     n = max(p2, p5)
	//     exact = q == 1
	//
	// For details see:

		panic(ErrNaN{"NewFloat(NaN)"})
	}
	return new(Float).SetFloat64(x)
}

// Exponent and precision limits.
const (
	MaxExp  = math.MaxInt32  // largest supported exponent
	MinExp  = math.MinInt32  // smallest supported exponent
	MaxPrec = math.MaxUint32 // largest (theoretically) supported precision; likely memory-limited
)

// Internal representation: The mantissa bits x.mant of a nonzero finite

		}
	case "lowerAscii", "upperAscii", "substring", "trim":
		if target != nil {
			sz := l.sizeEstimate(*target)
			return &checker.CallEstimate{CostEstimate: sz.MultiplyByCostFactor(common.StringTraversalCostFactor), ResultSize: &sz}
		}
	case "replace":
		if target != nil && len(args) >= 2 {
			sz := l.sizeEstimate(*target)
			toReplaceSz := l.sizeEstimate(args[0])
			replaceWithSz := l.sizeEstimate(args[1])

		dyn := apiservercel.NewSimpleTypeWithMinSize("dyn", cel.DynType, nil, 1) // smallest value for a serialized x-kubernetes-int-or-string is 0
		// handle x-kubernetes-int-or-string by returning the max length/min serialized size of the largest possible string
		dyn.MaxElements = maxRequestSizeBytes - 2
		return dyn
	}

	// We ignore XPreserveUnknownFields since we don't support validation rules on
	// data that we don't have schema information for.

				}
			}
		}
	}
	// Next, find the offset of the largest pointer in the largest node.
	var maxArgs int64
	if maxArgNode != nil {
		maxArgs = maxArgNode.FrameOffset() + types.PtrDataSize(maxArgNode.Type())
	}

	// Size locals bitmaps to be stkptrsize sized.
	// We cannot shrink them to only hold the largest pointer,
	// because their size is used to calculate the beginning

      throw new ArithmeticException("ceilingPowerOfTwo(" + x + ") not representable as an int");
    }
    return 1 << -Integer.numberOfLeadingZeros(x - 1);
  }

  /**
   * Returns the largest power of two less than or equal to {@code x}. This is equivalent to {@code
   * checkedPow(2, log2(x, FLOOR))}.
   *
   * @throws IllegalArgumentException if {@code x <= 0}
   * @since 20.0
   */

      throw new ArithmeticException("ceilingPowerOfTwo(" + x + ") not representable as an int");
    }
    return 1 << -Integer.numberOfLeadingZeros(x - 1);
  }

  /**
   * Returns the largest power of two less than or equal to {@code x}. This is equivalent to {@code
   * checkedPow(2, log2(x, FLOOR))}.
   *
   * @throws IllegalArgumentException if {@code x <= 0}
   * @since 20.0
   */

		ParamMayFeedIndirectCall:        passInlinableFuncToNestedIndCallAdj,
		ParamFeedsIndirectCall:          passInlinableFuncToIndCallAdj,
	}
}

// LargestNegativeScoreAdjustment tries to estimate the largest possible
// negative score adjustment that could be applied to a call of the
// function with the specified props. Example:
//
//	func foo() {                  func bar(x int, p *int) int {

  // for a GetCapacityRequest with topology and parameters that match the
  // previous fields.
  //
  // This is defined since CSI spec 1.4.0 as the largest size
  // that may be used in a
  // CreateVolumeRequest.capacity_range.required_bytes field to
  // create a volume with the same parameters as those in
  // GetCapacityRequest. The corresponding value in the Kubernetes

   * range [0, k) and ignore the remaining elements.
   */
  private final @Nullable T[] buffer;
  private int bufferSize;

  /**
   * The largest of the lowest k elements we've seen so far relative to this comparator. If
   * bufferSize ≥ k, then we can ignore any elements greater than this value.
   */
  @CheckForNull private T threshold;