//go:nosplit
func racewriterangepc(addr unsafe.Pointer, sz, callpc, pc uintptr) {
	gp := getg()
	if gp != gp.m.curg {
		// The call is coming from manual instrumentation of Go code running on g0/gsignal.
		// Not interesting.
		return
	}
	if callpc != 0 {
		racefuncenter(callpc)
	}
	racewriterangepc1(uintptr(addr), sz, pc)
	if callpc != 0 {
		racefuncexit()
	}
}

//go:nosplit

				lineNo = n
			}
		} else if filePath := javaLocationPathRx.FindStringSubmatch(jloc[2]); len(filePath) == 3 {
			// If there's not a file:line, it's a shared library path.
			// The path isn't interesting, so just give the .so.
			lineFunc, lineFile = filePath[1], filepath.Base(filePath[2])
		} else if strings.Contains(jloc[2], "generated stub/JIT") {
			lineFunc = "STUB"
		} else {

		Int(minI8 - 1),
		Int(minI16 + 1),
		Int(minI16),
		Int(minI16 - 1),
		Int(minI32 + 1),
		Int(minI32),
		Int(minI32 - 1),
		Int(minI64 + 1),
		Int(minI64),

		// other possibly interesting values
		Uint(1),
		Int(-1),
		Uint(0xff << 56),
		Uint(0xff << 32),
		Uint(0xff << 24),
	}
	sort.Slice(values, func(i, j int) bool { return values[i].Cmp(values[j]) == -1 })
	var ret []*big.Int

	expected = []string{"-command", "CMD0", "ab${_X}cd"}
	got = g.split(inLine + "\n")

	if !reflect.DeepEqual(got, expected) {
		t.Errorf("split(%q): got %q expected %q", inLine, got, expected)
	}

	// Now the interesting part, record that output as a command
	g.setShorthand(got)

	// see that the command still substitutes correctly from env. variable
	inLine = "//go:generate CMD0"
	expected = []string{"abYcd"}

Because most modules are currently published without Gradle Module Metadata, capabilities are not always automatically discovered by Gradle.
It is however interesting to use _rules_ to declare component capabilities in order to discover conflicts as soon as possible, during the build instead of runtime.

	}
	for _, ut := range UnitTypes {
		if v, u, ok := ut.convertUnit(value, fromUnit, toUnit); ok {
			return v, u
		}
	}
	// Skip non-interesting units.
	switch toUnit {
	case "count", "sample", "unit", "minimum", "auto":
		return float64(value), ""
	default:
		return float64(value), toUnit
	}
}

// Label returns the label used to describe a certain measurement.
func Label(value int64, unit string) string {

	InterestingDuration time.Duration

	// Count is the number of values tested.
	Count int64

	// CoverageData is set if the value in shared memory expands coverage
	// and therefore may be interesting to the coordinator.
	CoverageData []byte

	// Err is the error string caused by the value in shared memory, which is
	// non-empty if the value in shared memory caused a crash.
	Err string

* Execute a build and listen to stdout and stderr logging and progress messages (e.g. the messages shown in the 'status bar' when you run on the command line).
* Execute a specific test class or test method.
* Receive interesting events as a build executes, such as project configuration, task execution or test execution.
* Cancel a build that is running.
* Combine multiple separate Gradle builds into a single composite build.

type T2a struct {
	f struct {
		g A2
	}
}
type A2 = int

var x1a T1a
var x2a T2a

func _() {
	x1a = x2a // ERROR "assignment"
	x1a.f = x2a.f
}

// Another interesting corner case are generic types that don't use
// their type arguments. For instance:
type T[P any] struct{}

var xint T[int]
var xbool T[bool]

// Are these two variables of the same type? After all, their underlying

// fall broadly into three categories:
//
// 1) adjustments based solely on the callsite context (ex: call
// appears on panic path)
//
// 2) adjustments that take into account specific interesting values
// passed at a call site (ex: passing a constant that could result in
// cprop/deadcode in the caller)
//
// 3) adjustments that take into account values returned from the call