/* -*- C++ -*- */ // $Id$ // // ============================================================================ // // = DESCRIPTION // This is a helper class for the throughput tests of the Event // Channel. // Used for the collocated test. // // ============================================================================ #ifndef ECT_THROUGHPUT_H #define ECT_THROUGHPUT_H #include "ECT_Driver.h" #include "ECT_Consumer.h" #include "ECT_Supplier.h" #if !defined (ACE_LACKS_PRAGMA_ONCE) # pragma once #endif /* ACE_LACKS_PRAGMA_ONCE */ class ECT_Throughput : public ECT_Driver { // // = TITLE // // = DESCRIPTION // public: ECT_Throughput (void); virtual ~ECT_Throughput (void); enum { MAX_CONSUMERS = 16, // Maximum number of consumers. MAX_SUPPLIERS = 16 // Maximum number of suppliers. }; int run (int argc, char* argv[]); // Execute the test. virtual void shutdown_consumer (void* consumer_cookie ACE_ENV_ARG_DECL_NOT_USED); // Callback method for consumers, each consumer will call this // method once it receives all the shutdown events from the // suppliers. private: int parse_args (int argc, char* argv[]); // parse the command line args void connect_consumers (RtecScheduler::Scheduler_ptr scheduler, RtecEventChannelAdmin::EventChannel_ptr local_ec ACE_ENV_ARG_DECL); void disconnect_consumers (ACE_ENV_SINGLE_ARG_DECL); // Connect and disconnect the consumers. void connect_suppliers (RtecScheduler::Scheduler_ptr scheduler, RtecEventChannelAdmin::EventChannel_ptr local_ec ACE_ENV_ARG_DECL); void disconnect_suppliers (ACE_ENV_SINGLE_ARG_DECL); // Connect the suppliers. void activate_suppliers (ACE_ENV_SINGLE_ARG_DECL); // Activate the suppliers, i.e. they start generating events. void dump_results (void); // Dump the results for each supplier. private: Test_Consumer* consumers_[ECT_Throughput::MAX_CONSUMERS]; // The consumer array. int n_consumers_; // The number of consumers. Test_Supplier* suppliers_[ECT_Throughput::MAX_SUPPLIERS]; // The suppliers array. int n_suppliers_; // The number of suppliers. int burst_count_; // How many bursts we will send from each supplier. int burst_size_; // The number of events int event_size_; // The size of the payload on each event. int burst_pause_; // The time between each event burst, in microseconds. int consumer_type_start_; int consumer_type_count_; int consumer_type_shift_; // The consumers subscribe to different sets of events, as follows: // Consumer0: [start , start + count) // Consumer1: [start + 1*shift, start + 1*shift + count) // Consumer2: [start + 2*shift, start + 2*shift + count) // And so on. int supplier_type_start_; int supplier_type_count_; int supplier_type_shift_; // The suppliers generate different sets of events, as follows: // Supplier0: [start , start + count) // Supplier1: [start + 1*shift, start + 1*shift + count) // Supplier2: [start + 2*shift, start + 2*shift + count) // And so on. const char* pid_file_name_; // The name of a file where the process stores its pid CORBA::ORB_var orb_; // A reference to the ORB, to shut it down properly. TAO_SYNCH_MUTEX lock_; int active_count_; // How many consumers are still receiving events. int reactive_ec_; // If not zero then we use a reactive EC. int new_ec_; // If not zero then we use the new EC implementation int ec_concurrency_hwm_; // Set the HWM for the concurrency in the EC. int thr_create_flags_; // The thread creation flags }; #endif /* ECT_TRHOUGHPUT_H */