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Copy pathDRR.py
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248 lines (191 loc) · 10.8 KB
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class Process:
def __init__(self, pid, arrival_time, burst_time, gpt_model, complexity, time_quantum):
self.pid = pid
self.arrival_time = arrival_time
self.burst_time = burst_time
self.remaining_time = burst_time
self.count = 0
self.waiting_time = 0
self.gpt_model = gpt_model
self.complexity = complexity
self.time_quantum = time_quantum
class Processor:
def __init__(self, processor_id, core_type: str):
self.processor_id = processor_id
self.core_type = core_type
self.current_process = None
self.power_on = False
self.power_usage = 0.0
def update_power_status(self,processor):
if processor.current_process:
if not processor.power_on:
processor.power_on = True
if processor.core_type == "P":
processor.power_usage += 0.5
elif processor.core_type == "E":
processor.power_usage += 0.1
else:
if processor.power_on == True:
processor.power_on = False
class SchedulingAlgorithm:
def __init__(self, processor_select_signal):
self.processors = []
for i in range(len(processor_select_signal)):
if processor_select_signal[i] == 0:
self.processors.append(Processor(i, None))
elif processor_select_signal[i] == 1:
self.processors.append(Processor(i, "P"))
elif processor_select_signal[i] == 2:
self.processors.append(Processor(i, "E"))
def schedule(self):
raise NotImplementedError("schedule method must be implemented by a subclass")
class DRR(SchedulingAlgorithm):
def __init__(self, processor_select_signal):
super().__init__(processor_select_signal)
self.process_queue = []
self.ready_queue = []
self.completed_processes = []
self.outed_processes = []
self.time_quantum_table = {
(1, 5): 1,
(6, 10): 2,
(11, 15): 3,
(16, 20): 4,
(21, float('inf')): 5
}
self.processor0_queue = []
self.processor1_queue = []
self.processor2_queue = []
self.processor3_queue = []
self.total_power_usage = []
def add_process(self, process):
self.process_queue.append(process)
def assign_process_to_processor(self, processor, processor_list, ready_queue):
if not processor.current_process and ready_queue:
if processor.core_type == "P":
if ready_queue[0].remaining_time > 1 and ready_queue[0].complexity > 4:
processor.current_process = ready_queue.pop(0)
elif processor.core_type == "E":
if ready_queue[0].remaining_time == 1 or ready_queue[0].complexity <= 4:
processor.current_process = ready_queue.pop(0)
elif all([p.current_process for p in processor_list if p.core_type == "P"]):
processor.current_process = ready_queue.pop(0)
def handle_outed_process(self, processor, scheduler, current_time):
processor.current_process.waiting_time = (current_time - processor.current_process.arrival_time - processor.current_process.count + 1)
processor.current_process.turnaround_time = (processor.current_process.waiting_time + processor.current_process.count)
processor.current_process.completed_time = current_time + 1
processor.current_process.NTT = round((processor.current_process.turnaround_time) / processor.current_process.count, 1)
scheduler.outed_processes.append((processor.current_process.pid, processor.current_process.arrival_time, processor.current_process.count, processor.current_process.waiting_time,processor.current_process.turnaround_time,processor.current_process.NTT,processor.current_process.completed_time))
processor.current_process = None
def handle_completed_process(self, processor, scheduler, current_time):
processor.current_process.waiting_time = (current_time - processor.current_process.arrival_time - processor.current_process.count + 1)
processor.current_process.turnaround_time = (processor.current_process.waiting_time + processor.current_process.count)
processor.current_process.completed_time = current_time + 1
processor.current_process.NTT = round((processor.current_process.turnaround_time) / processor.current_process.count, 1)
scheduler.completed_processes.append((processor.current_process.pid, processor.current_process.arrival_time, processor.current_process.count, processor.current_process.waiting_time,processor.current_process.turnaround_time,processor.current_process.NTT,processor.current_process.completed_time))
processor.current_process = None
def handle_preempted_process(self, processor, scheduler):
scheduler.ready_queue.append(processor.current_process)
processor.current_process = None
def update_current_process(self,processor, scheduler, current_time):
if processor.current_process:
processor.current_process.count += 1
if processor.core_type == "P":
processor.current_process.remaining_time -= 2
processor.power_usage += 3
elif processor.core_type == "E":
processor.current_process.remaining_time -= 1
processor.power_usage += 1
if processor.current_process.count >= 10:
self.handle_outed_process(processor, scheduler, current_time)
elif processor.current_process.remaining_time <= 0:
self.handle_completed_process(processor, scheduler, current_time)
elif processor.current_process.remaining_time > 0:
if (processor.current_process.count) % processor.current_process.time_quantum == 0:
self.handle_preempted_process(processor, scheduler)
def schedule(self):
current_time = 0
processor0 = self.processors[0]
processor1 = self.processors[1]
processor2 = self.processors[2]
processor3 = self.processors[3]
self.ready_queue_list = []
self.list =[]
while self.process_queue or self.ready_queue or processor0.current_process or processor1.current_process or processor2.current_process or processor3.current_process:
incoming_processes = [proc for proc in self.process_queue if proc.arrival_time == current_time]
for process in incoming_processes:
self.process_queue.remove(process)
self.ready_queue.append(process)
if self.ready_queue:
for(lower, upper), quantum in self.time_quantum_table.items():
for process in self.ready_queue:
if lower <= process.remaining_time <= upper:
process.time_quantum = quantum
self.assign_process_to_processor(processor0, self.processors, self.ready_queue)
self.assign_process_to_processor(processor1, self.processors, self.ready_queue)
self.assign_process_to_processor(processor2, self.processors, self.ready_queue)
self.assign_process_to_processor(processor3, self.processors, self.ready_queue)
processor0.update_power_status(processor0)
processor1.update_power_status(processor1)
processor2.update_power_status(processor2)
processor3.update_power_status(processor3)
if processor0.current_process:
self.processor0_queue.append((processor0.current_process.pid,processor0.power_usage))
else:
self.processor0_queue.append((0,processor0.power_usage))
if processor1.current_process:
self.processor1_queue.append((processor1.current_process.pid,processor1.power_usage))
else:
self.processor1_queue.append((0,processor1.power_usage))
if processor2.current_process:
self.processor2_queue.append((processor2.current_process.pid,processor2.power_usage))
else:
self.processor2_queue.append((0,processor2.power_usage))
if processor3.current_process:
self.processor3_queue.append((processor3.current_process.pid, processor3.power_usage))
else:
self.processor3_queue.append((0, processor3.power_usage))
self.total_power_usage.append(round(processor0.power_usage + processor1.power_usage + processor2.power_usage + processor3.power_usage,1))
for i in self.ready_queue:
self.list.append(i.pid)
self.ready_queue_list.append(self.list)
self.list =[]
self.update_current_process(processor0, self, current_time)
self.update_current_process(processor1, self, current_time)
self.update_current_process(processor2, self, current_time)
self.update_current_process(processor3, self, current_time)
current_time += 1
def print_results(self):
list =[self.processor0_queue, self.processor1_queue,self.processor2_queue, self.processor3_queue, self.total_power_usage, self.completed_processes, self.ready_queue_list, self.outed_processes]
return list
class Main:
def __init__(self, process_select_signal, processor_select_signal):
self.processes = []
self.process_select_signal = process_select_signal
self.drr_algorithm = DRR(processor_select_signal)
def create_process(self):
for i in self.process_select_signal:
pid = i[0]
arrival_time = i[1]
burst_time = i[2]
gpt_model = i[3]
complexity = i[4]
time_quantum = 0
completed_time = 0
process = Process(pid, arrival_time, burst_time, gpt_model, complexity, time_quantum)
self.processes.append(process)
def run_scheduler(self):
for process in self.processes:
self.drr_algorithm.add_process(process)
self.drr_algorithm.schedule()
def print_result(self):
return self.drr_algorithm.print_results()
def main(Info =[]):
process_select_signal = Info[0]
processor_select_signal = Info[1]
main_program = Main(process_select_signal, processor_select_signal)
main_program.create_process()
main_program.run_scheduler()
return main_program.print_result()
if __name__ == "__main__":
main()