}
	span.AddEvent("Txn call succeeded")

	if !txnResp.Succeeded {
		return storage.NewKeyExistsError(preparedKey, 0)
	}

	if out != nil {
		putResp := txnResp.Responses[0].GetResponsePut()
		err = decode(s.codec, s.versioner, data, out, putResp.Header.Revision)
		if err != nil {
			span.AddEvent("decode failed", attribute.Int("len", len(data)), attribute.String("err", err.Error()))

Used for declaring implementation dependencies for all variants of the main component (see <<sec:swift_library_api_vs_implementation,API vs implementation section>>).
This is where you should declare dependencies which are purely internal and not meant to be exposed to consumers of any variants.

`main__Variant__Implementation` (e.g. `mainDebugImplementation` and `mainReleaseImplementation`) extends `implementation`::

            }

            if (!plugin.isExtensions()
                    && artifacts.size() == 1
                    && artifacts.get(0).getFile() != null) {
                /*
                 * This is purely for backward-compat with 2.x where <extensions> consisting of a single artifact where
                 * loaded into the core and hence available to plugins, in contrast to bigger extensions that were

 * latest strategy nor a ivy instance is set, an IllegalStateException will be thrown when calling
 * accept(). Note that it can't work with latest time strategy, cause no time is known for the
 * limits of the range. Therefore only purely revision based LatestStrategy can be used.
 */
public class VersionRangeSelector extends AbstractVersionVersionSelector {
    private static final String OPEN_INC = "[";

    private static final String OPEN_EXC = "]";

Used for declaring implementation dependencies for all variants of the main component (see <<sec:cpp_library_api_vs_implementation,API vs implementation section>>).
This is where you should declare dependencies which are purely internal and not meant to be exposed to consumers of any variants.

`main__Variant__Implementation` (e.g. `mainDebugImplementation` and `mainReleaseImplementation`) extends `implementation`::

	"io/fs"
	"os"
	"slices"
)

const (
	Separator     = os.PathSeparator
	ListSeparator = os.PathListSeparator
)

// Clean returns the shortest path name equivalent to path
// by purely lexical processing. It applies the following rules
// iteratively until no further processing can be done:
//
//  1. Replace multiple [Separator] elements with a single one.

	}
	return data, p.err
}

func (p *PrefixTransformer) GetReadsAndReset() uint64 {
	return atomic.SwapUint64(&p.reads, 0)
}

// reproducingTransformer is a custom test-only transformer used purely
// for testing consistency.
// It allows for creating predefined objects on TransformFromStorage operations,
// which allows for precise in time injection of new objects in the middle of
// read operations.

	// PolicyRules may not be complete, but it contains all retrievable rules.  This is done because policy rules are purely additive and policy determinations
	// can be made on the basis of those rules that are found.
	RulesFor(user user.Info, namespace string) ([]rbacv1.PolicyRule, error)

#include "tensorflow/c/eager/c_api_experimental.h"
#include "tensorflow/core/platform/test.h"

// NOTE(allenl): These tests currently go through TFE_Execute and so are
// integration testing rather than purely testing the parallel device. They
// correspond fairly well to the implementation, but testing the C++ directly is
// another option.

namespace tensorflow {
namespace parallel_device {

            .filter(spec::isPurelyCorrectType)
            .collect(Collectors.toList());
        if (nonLegacyConfigs.isEmpty()) {
            message("There are no purely " + spec.getReportedConfigurationDirection() + " " + spec.getReportedTypeAlias() + "s present in project '" + data.getProjectName() + "'.");