continue
		}
		// First store completed. Check type and overwrite data.
		if typ != np.typ {
			panic("sync/atomic: compare and swap of inconsistently typed value into Value")
		}
		// Compare old and current via runtime equality check.
		// This allows value types to be compared, something
		// not offered by the package functions.
		// CompareAndSwapPointer below only ensures vp.data

func _New[K, V any](compare func(K, K) int) *_Map[K, V] {
	return &_Map[K, V]{compare: compare}
}

// _NewOrdered returns a new map whose key is an ordered type.
// This is like _New, but does not require providing a compare function.
// The map compare function uses the obvious key ordering.
func _NewOrdered[K Ordered, V any]() *_Map[K, V] {
	return _New[K, V](func(k1, k2 K) int {
		switch {
		case k1 < k2:
			return -1
		case k1 == k2:

        for (String version : args) {
            ComparableVersion c = new ComparableVersion(version);

            if (prev != null) {
                int compare = prev.compareTo(c);
                System.out.println("   " + prev.toString() + ' ' + ((compare == 0) ? "==" : ((compare < 0) ? "<" : ">"))
                        + ' ' + version);
            }

            System.out.println(

	if vType != versionTypeGA {
		if minorVersion, err = strconv.Atoi(submatches[3]); err != nil {
			return 0, 0, 0, false
		}
	}
	return majorVersion, vType, minorVersion, true
}

// CompareKubeAwareVersionStrings compares two kube-like version strings.
// Kube-like version strings are starting with a v, followed by a major version, optional "alpha" or "beta" strings

	snapshot := LeakDetect{
		relevantRoutines: make(map[string]bool),
	}
	for _, g := range pickRelevantGoroutines() {
		snapshot.relevantRoutines[g] = true
	}
	return snapshot
}

// CompareCurrentSnapshot - Compares the initial relevant stack trace with the current one (during the time of invocation).
func (initialSnapShot LeakDetect) CompareCurrentSnapshot() []string {
	var stackDiff []string
	for _, g := range pickRelevantGoroutines() {

   * to the JDK until JDK 7.
   *
   * @param a the first {@code float} to compare
   * @param b the second {@code float} to compare
   * @return the result of invoking {@link Float#compare(float, float)}
   */
  public static int compare(float a, float b) {
    return Float.compare(a, b);
  }

  /**
   * Returns {@code true} if {@code value} represents a real number. This is equivalent to, but not

   * to the JDK until JDK 7.
   *
   * @param a the first {@code float} to compare
   * @param b the second {@code float} to compare
   * @return the result of invoking {@link Float#compare(float, float)}
   */
  public static int compare(float a, float b) {
    return Float.compare(a, b);
  }

  /**
   * Returns {@code true} if {@code value} represents a real number. This is equivalent to, but not

#### Fix it with `secrets.compare_digest()`

But in our code we are actually using `secrets.compare_digest()`.

In short, it will take the same time to compare `stanleyjobsox` to `stanleyjobson` than it takes to compare `johndoe` to `stanleyjobson`. And the same for the password.

That way, using `secrets.compare_digest()` in your application code, it will be safe against this whole range of security attacks.

package test

import (
	"math"
	"testing"
)

//go:noinline
func compare1(a, b float64) bool {
	return a < b
}

//go:noinline
func compare2(a, b float32) bool {
	return a < b
}

func TestFloatCompare(t *testing.T) {
	if !compare1(3, 5) {
		t.Errorf("compare1 returned false")
	}
	if !compare2(3, 5) {
		t.Errorf("compare2 returned false")
	}
}

func TestFloatCompareFolded(t *testing.T) {

    return builder.toString();
  }

  /**
   * Returns a comparator that compares two {@code char} arrays <a
   * href="http://en.wikipedia.org/wiki/Lexicographical_order">lexicographically</a>; not advisable
   * for sorting user-visible strings as the ordering may not match the conventions of the user's
   * locale. That is, it compares, using {@link #compare(char, char)}), the first pair of values