})
	}
}

// TestPodAddsBatching verifies that endpoint updates caused by pod addition are batched together.
// This test uses real time.Sleep, as there is no easy way to mock time in endpoints controller now.
// TODO(mborsz): Migrate this test to mock clock when possible.
func TestPodAddsBatching(t *testing.T) {
	t.Parallel()

	type podAdd struct {
		delay time.Duration

It means that you will be tempted to switch it off.

So why should you bother?

Dependency verification is about **trust** in what you get and what you ship.

Without dependency verification it's easy for an attacker to compromise your supply chain.
There are many real world examples of tools compromised by adding a malicious dependency.

func TestWriteString(t *testing.T) {
	const BufSize = 8
	buf := new(strings.Builder)
	b := NewWriterSize(buf, BufSize)
	b.WriteString("0")                         // easy
	b.WriteString("123456")                    // still easy
	b.WriteString("7890")                      // easy after flush
	b.WriteString("abcdefghijklmnopqrstuvwxy") // hard
	b.WriteString("z")
	if err := b.Flush(); err != nil {
		t.Error("WriteString", err)
	}

}

func sais_8_64(text []byte, textMax int, sa, tmp []int64) {
	if len(sa) != len(text) || len(tmp) < textMax {
		panic("suffixarray: misuse of sais_8_64")
	}

	// Trivial base cases. Sorting 0 or 1 things is easy.
	if len(text) == 0 {
		return
	}
	if len(text) == 1 {
		sa[0] = 0
		return
	}

	// Establish slices indexed by text character
	// holding character frequency and bucket-sort offsets.

}

// TestPodUpdatesBatching verifies that endpoint updates caused by pod updates are batched together.
// This test uses real time.Sleep, as there is no easy way to mock time in endpoints controller now.
// TODO(mborsz): Migrate this test to mock clock when possible.
func TestPodUpdatesBatching(t *testing.T) {
	type podUpdate struct {
		delay   time.Duration

        }
    }

    private CommandLine cliMerge(CommandLine mavenConfig, CommandLine mavenCli) {
        CommandLine.Builder commandLineBuilder = new CommandLine.Builder();

        // the args are easy, CLI only since maven.config file can only contain options
        for (String arg : mavenCli.getArgs()) {
            commandLineBuilder.addArg(arg);
        }

    }

    /**
     * Cuts this string up into alternating parameter names and values. This divides a query string
     * like `subject=math&easy&problem=5-2=3` into the list `["subject", "math", "easy", null,
     * "problem", "5-2=3"]`. Note that values may be null and may contain '=' characters.
     */
    private fun String.toQueryNamesAndValues(): MutableList<String?> {

	// Make sure top class is clean.
	// All the others already are (see swapVerticalBar).
	if len(subs) > 0 {
		cleanAlt(subs[len(subs)-1])
	}

	// Empty alternate is special case
	// (shouldn't happen but easy to handle).
	if len(subs) == 0 {
		return p.push(p.newRegexp(OpNoMatch))
	}

	return p.push(p.collapse(subs, OpAlternate))
}

// cleanAlt cleans re for eventual inclusion in an alternation.

// small object spans and heap arena spans.
//
// Note that the uintptr of each element means something different for small object
// spans and for heap arena spans. Small object spans are easy: they're never interpreted
// as anything but uintptr, so they're immune to differences in endianness. However, the
// heapBits for user arena spans is exposed through a dummy type descriptor, so the byte

     * make resolution fail if we decide that 2 configurations with the same attributes lead to an error.
     *
     * Also, since configurations can have multiple parents, it would be very easy to face a situation
     * where ordering of the "extendsFrom" clauses trigger different resolution results.
     *
     * There's another reason for not allowing inheritance: it allows more precise selection, while still