* In order to generate realistic project dependencies, we split the projects to layers and generate
 * dependencies to projects in lower layers. The sizes of different layers are created so that
 * the first and last layers are the smallest and the layers in the middle are the largest.
 *
 * For example when numberOfProjects = 150, 10 layers will be created with sizes of
 * [1, 2, 6, 16, 50, 50, 16, 6, 2, 1]
 *

	// Only one PriorityClass can be marked as `globalDefault`. However, if more than
	// one PriorityClasses exists with their `globalDefault` field set to true,
	// the smallest value of such global default PriorityClasses will be used as the default priority.
	// +optional
	GlobalDefault bool `json:"globalDefault,omitempty" protobuf:"bytes,3,opt,name=globalDefault"`

			ebits = fbits - mbits - 1 //     8  exponent size
			bias  = 1<<(ebits-1) - 1  //   127  exponent bias
			dmin  = 1 - bias - mbits  //  -149  smallest unbiased exponent (denormal)
			emin  = 1 - bias          //  -126  smallest unbiased exponent (normal)
			emax  = bias              //   127  largest unbiased exponent (normal)
		)

		//  `type(intOrStringField) == int ? intOrStringField < 5 : double(intOrStringField.replace('%', '')) < 0.5
		//
		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

// the smallest number of lines inserted and removed,
// which can in the worst case take time quadratic in the
// number of lines in the texts. As a result, many implementations
// either can be made to run for a long time or cut off the search
// after a predetermined amount of work.
//
// In contrast, this implementation looks for a diff with the
// smallest number of “unique” lines inserted and removed,

	//
	// https://github.com/pornin/ecgfp5/blob/82325b965/rust/src/field.rs#L337-L385

	// p = q*2^n + 1 with q odd -> q = 2^128 - 1 and n = 96
	// g^(2^n) = 1 -> g = 11 ^ q (where 11 is the smallest non-square)
	// GG[j] = g^(2^j) for j = 0 to n-1

	p224GGOnce.Do(func() {
		p224GG = new([96]fiat.P224Element)
		for i := range p224GG {
			if i == 0 {
				p224GG[i].SetBytes([]byte{0x6a, 0x0f, 0xec, 0x67,

				}
				if in(b, r) == nil && in(b, s) == nil {
					t.Errorf("Intersect: r=%s, s=%s, a=%s, b=%s, i=%d: intersection could be larger",
						r, s, a, b, i)
				}
			}
		}
	}

	// The union should be the smallest rectangle a such that every point in r
	// is in a and every point in s is in a.
	for _, r := range rects {
		for _, s := range rects {
			a := r.Union(s)
			if err := in(r, a); err != nil {

            // this way, for each task selector, its description will be the one from the selected task with the 'smallest' path
            if (!taskSelectors.containsKey(task.getName())) {
                LaunchableGradleTaskSelector taskSelector = new LaunchableGradleTaskSelector()

	// 	and the scaled approximate reciprocal in the case of unsigned
	// 	integers.
	//
	// 	if d is a power of two then
	// 		Let F ← log₂(d) and c = 1.
	// 	else
	// 		Let F ← N + L where L is the smallest integer
	// 		such that d ≤ (2^(N+L) mod d) + 2^L.
	// 	end if
	//
	// [1] "Faster Remainder by Direct Computation: Applications to
	// Compilers and Software Libraries" Daniel Lemire, Owen Kaser,

// SimpleFold iterates over Unicode code points equivalent under
// the Unicode-defined simple case folding. Among the code points
// equivalent to rune (including rune itself), SimpleFold returns the
// smallest rune > r if one exists, or else the smallest rune >= 0.
// If r is not a valid Unicode code point, SimpleFold(r) returns r.
//
// For example:
//
//	SimpleFold('A') = 'a'
//	SimpleFold('a') = 'A'
//
//	SimpleFold('K') = 'k'