store
	sync.RWMutex
}

type store map[string]Driver

// Get lets you retrieve a CSI Driver by name.
// This method is protected by a mutex.
func (s *DriversStore) Get(driverName string) (Driver, bool) {
	s.RLock()
	defer s.RUnlock()

	driver, ok := s.store[driverName]
	return driver, ok
}

// Set lets you save a CSI Driver to the list and give it a specific name.
// This method is protected by a mutex.

// and their corresponding sockets.
var draPlugins = &pluginsStore{}

// Get lets you retrieve a DRA Plugin by name.
// This method is protected by a mutex.
func (s *pluginsStore) get(pluginName string) *plugin {
	s.RLock()
	defer s.RUnlock()

	return s.store[pluginName]
}

// Set lets you save a DRA Plugin to the list and give it a specific name.
// This method is protected by a mutex.

}

// Stop implements Interface
func (w emptyWatch) Stop() {
}

// ResultChan implements Interface
func (w emptyWatch) ResultChan() <-chan Event {
	return chan Event(w)
}

// FakeWatcher lets you test anything that consumes a watch.Interface; threadsafe.
type FakeWatcher struct {
	result  chan Event
	stopped bool
	sync.Mutex
}

func NewFake() *FakeWatcher {
	return &FakeWatcher{

//go:build !goexperiment.regabiargs && !amd64 && !arm64 && !loong64 && !ppc64 && !ppc64le && !riscv64

package abi

const (
	// ABI-related constants.
	//
	// In the generic case, these are all zero
	// which lets them gracefully degrade to ABI0.

	// IntArgRegs is the number of registers dedicated
	// to passing integer argument values. Result registers are identical
	// to argument registers, so this number is used for those too.

{
	kern_return_t ret;
	arm_unified_thread_state_t thread_state;
	mach_msg_type_number_t state_count = ARM_UNIFIED_THREAD_STATE_COUNT;

	// Returning KERN_SUCCESS intercepts the exception.
	//
	// Returning KERN_FAILURE lets the exception fall through to the
	// next handler, which is the standard signal emulation code
	// registered on the task port.

	if (exception != EXC_BAD_ACCESS) {
		return KERN_FAILURE;
	}

// clusters.
//
// This helps us in two ways:
//
//  - It reduces dependencies between clusters.  Let's say a constant C is used
//    by nodes X and Y.  If X and Y are put in different clusters (for whatever
//    reason) Y's cluster now has to wait for all the operations in X's cluster
//    to finish before it starts running.
//
//  - It lets us create bigger clusters in multi-GPU benchmarks.  Consider the
//    following graph:
//

		}
	}
	return x
}

// ToFold returns a string with the property that
//
//	strings.EqualFold(s, t) iff ToFold(s) == ToFold(t)
//
// This lets us test a large set of strings for fold-equivalent
// duplicates without making a quadratic number of calls
// to EqualFold. Note that strings.ToUpper and strings.ToLower
// do not have the desired property in some corner cases.

> Task :app:testClasses UP-TO-DATE
> Task :app:test FROM-CACHE
> Task :app:check UP-TO-DATE
> Task :app:build

BUILD SUCCESSFUL in 525ms
8 actionable tasks: 5 executed, 3 from cache
----

Gradle lets us know the outcome of each task in the console output:

- `FROM-CACHE` - tasks have been fetched from the local build cache.
- `UP-TO-DATE` - tasks that used incremental build and were not re-run.

To summarize:

func ExampleNew() {
	err := errors.New("emit macho dwarf: elf header corrupted")
	if err != nil {
		fmt.Print(err)
	}
	// Output: emit macho dwarf: elf header corrupted
}

// The fmt package's Errorf function lets us use the package's formatting
// features to create descriptive error messages.
func ExampleNew_errorf() {
	const name, id = "bimmler", 17
	err := fmt.Errorf("user %q (id %d) not found", name, id)
	if err != nil {

		if _, ok := err.(*exec.ExitError); ok {
			return false
		}
		// Other errors imply that CombinedOutput failed before the command was executed,
		// so lets to get the logs using Get-WinEvent at the call site instead of assuming
		// the service is logging to a file
	}
	return true