import org.codelibs.fess.crawler.exception.ChildUrlsException;
import org.codelibs.fess.crawler.exception.CrawlerSystemException;
import org.codelibs.fess.crawler.processor.ResponseProcessor;
import org.codelibs.fess.crawler.processor.impl.DefaultResponseProcessor;
import org.codelibs.fess.crawler.rule.Rule;
import org.codelibs.fess.crawler.rule.RuleManager;
import org.codelibs.fess.crawler.transformer.Transformer;

    "unitTests": false,
    "functionalTests": false,
    "crossVersionTests": false
  },
  {
    "name": "internal-instrumentation-processor",
    "path": "platforms/core-runtime/internal-instrumentation-processor",
    "unitTests": true,
    "functionalTests": false,
    "crossVersionTests": false
  },
  {
    "name": "internal-integ-testing",

	// exist on disk for until Close is called (at the end of the process).
	Put(ActionID, io.ReadSeeker) (_ OutputID, size int64, _ error)

	// Close is called at the end of the go process. Implementations can do
	// cache cleanup work at this phase, or wait for and report any errors from
	// background cleanup work started earlier. Any cache trimming should in one
	// process should not violate cause the invariants of this interface to be

    override fun processPropertiesByName(name: Name, processor: (FirVariableSymbol<*>) -> Unit) {
        typeScope.processPropertiesByName(name, processor)
        syntheticPropertiesScope.processPropertiesByName(name, processor)
    }
}

private val JAVA_ENHANCEMENT_FOR_DECLARED_MEMBERS = scopeSessionKey<FirRegularClassSymbol, FirContainingNamesAwareScope>()

	// TODO(gri) There's more memory we should release at this point.
}

// processDelayed processes all delayed actions pushed after top.
func (check *Checker) processDelayed(top int) {
	// If each delayed action pushes a new action, the
	// stack will continue to grow during this loop.
	// However, it is only processing functions (which
	// are processed in a delayed fashion) that may
	// add more actions (such as nested functions), so

import org.codelibs.fess.crawler.helper.LogHelper;
import org.codelibs.fess.crawler.interval.IntervalController;
import org.codelibs.fess.crawler.log.LogType;
import org.codelibs.fess.crawler.processor.ResponseProcessor;
import org.codelibs.fess.crawler.rule.Rule;
import org.codelibs.fess.crawler.service.DataService;
import org.codelibs.fess.crawler.service.UrlQueueService;

        be unavailable.

  So, offline mode has several implications, some of which may not be
  altogether obvious:

  * Localhost may be unavailable. Therefore, even locally installed
    server processes which work by conversing over a port may fail.

  * Not all "remote" repositories will fail. Specifically, if the remote
    repo uses the file:// protocol, and it doesn't refer to a shared

runtime dynamic linker.

In external mode, cmd/link does not process any host object files, in
particular foo.cgo2.o. It links together the gc-generated object
files, along with any other Go code, into a go.o file. While doing
that, cmd/link will discover that there is no definition for
_cgo_gcc_Cfunc_sin, referred to by the gc-compiled source file. This
is okay, because cmd/link also processes the cgo_import_static directive and

        List<InterpolationPostProcessor> processors = new ArrayList<>(2);
        if (projectDir != null) {
            processors.add(new PathTranslatingPostProcessor(
                    getProjectPrefixes(config), TRANSLATED_PATH_EXPRESSIONS, projectDir, pathTranslator));
        }
        processors.add(new UrlNormalizingPostProcessor(urlNormalizer));
        return processors;
    }

		if platform == 'remote-ios':
			process.RemoteLaunch(args, env, None, None, None, None, 0, False, err)
			if not err.Success():
				sys.stderr.write("lldb: failed to launch remote process: %s\n" % (err))
				process.Kill()
				debugger.Terminate()
				sys.exit(1)
		run_program()

exitStatus = process.GetExitStatus()
exitDesc = process.GetExitDescription()
process.Kill()
debugger.Terminate()