Example #1
0
        static void Main(string[] args)
        {
            // TODO: Implement the structure to be able to handle data size not dividable by 4
            // TODO: Implement so that the structure can run more than one time
            // TODO: Update the cache to be able to use both simple data and
            // actual acceleration data

            // TODO: Fix cache to handle data_size 4 and 8.

            /* NOTE: The Cache running independently does not use the acceleration
             * module and therefore the data stored in the cache are created by the
             * simulation. This also means that the cache results cannot be compared
             * to other MD acceleration results when testing the cache module alone. */


            for (ulong data_size = 12; data_size < 200; data_size = data_size * 2)
            {
                Console.WriteLine("data_size is {0} and cache_size is {1}", data_size, (long)Cache_size.n);
                using (var sim = new Simulation()){
                    ulong[] positions = new ulong[data_size];
                    for (long k = 0; k < (int)data_size; k++)
                    {
                        positions[k] = (ulong)k + 1;
                    }

                    //External simulation process
                    var testing_simulator = new Testing_Simulator(positions, (ulong)Cache_size.n);

                    // RAM
                    var acceleration_ram = new Deflib.AccelerationDataRam((ulong)positions.Length);


                    var acceleration_cache = new AccelerationCache((ulong)Cache_size.n);


                    acceleration_cache.acceleration_input = testing_simulator.acceleration_input;
                    acceleration_cache.ready         = testing_simulator.acceleration_ready;
                    acceleration_cache.acc_ramctrl   = acceleration_ram.ControlA;
                    acceleration_cache.acc_ramresult = acceleration_ram.ReadResultA;

                    testing_simulator.acc_ramctrl         = acceleration_ram.ControlB;
                    testing_simulator.acc_ramresult       = acceleration_ram.ReadResultB;
                    testing_simulator.acceleration_result = acceleration_cache.output;

                    sim
                    // .AddTopLevelInputs(acceleration_cache.acceleration_input, acceleration_cache.ready, testing_simulator.acc_ramctrl)
                    // .AddTopLevelOutputs(testing_simulator.acc_ramresult, acceleration_cache.output)
                    // .BuildCSVFile()
                    // .BuildVHDL()
                    .Run()
                    ;
                }
            }
            Console.WriteLine("Simulation completed");
        }
Example #2
0
        static void Main(string[] args)
        {
            using (var sim = new Simulation())
            {
                // TODO: Fix to handle data_size not divisable with cache_size
                long   data_size     = 20;
                double timestep_size = 10.1;

                var velocity_ram     = new TrueDualPortMemory <ulong>((int)data_size);
                var acceleration_ram = new Deflib.AccelerationDataRam((ulong)data_size);

                var testing_simulator = new Testing_Simulation((ulong)data_size, timestep_size, (ulong)Cache_size.n);
                var velocity_manager  = new Vel_manager((ulong)data_size, timestep_size);



                Update_velocity velocity =
                    new Update_velocity(velocity_manager.prev_velocity,
                                        velocity_manager.acceleration_data_point, timestep_size);

                var multiplexer = new Multiplexer_ControlA();

                velocity_manager.reset            = testing_simulator.sim_ready;
                velocity_manager.data_ready       = testing_simulator.data_ready;
                velocity_manager.updated_velocity = velocity.updated_data_point;
                testing_simulator.finished        = velocity_manager.finished;

                velocity_manager.velocity_ramctrl   = velocity_ram.ControlB;
                velocity_manager.velocity_ramresult = velocity_ram.ReadResultB;

                velocity_manager.acceleration_data_point_ramctrl   = acceleration_ram.ControlB;
                velocity_manager.acceleration_data_point_ramresult = acceleration_ram.ReadResultB;

                velocity_manager.updated_velocity_ramctrl = multiplexer.second_input;
                testing_simulator.velocity_ramctrl        = multiplexer.first_input;
                multiplexer.output = velocity_ram.ControlA;

                testing_simulator.acceleration_ramctrl = acceleration_ram.ControlA;
                testing_simulator.velocity_ramresult   = velocity_ram.ReadResultA;

                sim.Run();
                Console.WriteLine("Simulation completed");
            }
        }