（九五）ArkCompiler 在智能航空中的应用：编译优化赋能安全与性能提升 原创

import math                                 # 模拟飞机当前姿态                current_roll = 0                current_pitch = 0                current_yaw = 0                                 # 目标姿态                target_roll = 10                target_pitch = 5                target_yaw = 2                                 # 姿态调整函数                def adjust_attitude():                    global current_roll, current_pitch, current_yaw                    roll_error = target_roll - current_roll                    pitch_error = target_pitch - current_pitch                    yaw_error = target_yaw - current_yaw                                     # 简单的比例控制                    roll_adjustment = 0.1 * roll_error                    pitch_adjustment = 0.1 * pitch_error                    yaw_adjustment = 0.1 * yaw_error                                     current_roll += roll_adjustment                    current_pitch += pitch_adjustment                    current_yaw += yaw_adjustment                                     print(f"当前姿态: 滚转 {current_roll}°, 俯仰 {current_pitch}°, 偏航 {current_yaw}°")                                 # 模拟姿态调整过程                for _ in range(10):                    adjust_attitude()
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import random                                 # 模拟传感器数据采集                def collect_sensor_data():                    return {                        "temperature": random.uniform(20, 50),                        "pressure": random.uniform(800, 1200),                        "altitude": random.uniform(1000, 10000)                    }                                 # 数据处理函数                def process_sensor_data(data):                    temperature = data["temperature"]                    pressure = data["pressure"]                    altitude = data["altitude"]                                     # 简单的数据处理示例                    if temperature > 40:                        print("温度过高，请检查设备！")                    if pressure < 900:                        print("气压过低，请注意飞行安全！")                    if altitude > 8000:                        print("飞行高度过高，请调整！")                                 # 模拟数据采集和处理                sensor_data = collect_sensor_data()                process_sensor_data(sensor_data)
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import time                                 # 模拟突发气流检测                def detect_turbulence():                    import random                    return random.choice([True, False])                                 # 气流响应函数                def respond_to_turbulence():                    print("检测到突发气流，正在调整姿态...")                    # 模拟姿态调整过程                    time.sleep(1)                    print("姿态调整完成，飞行恢复稳定。")                                 # 实时监测                while True:                    if detect_turbulence():                        respond_to_turbulence()                    time.sleep(0.1)
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# 模拟航空电子设备软件主循环                def avionics_software():                    try:                        while True:                            # 模拟设备正常运行                            time.sleep(1)                            print("航空电子设备正常运行...")                    except Exception as e:                        print(f"发生错误: {e}")                                 # 启动航空电子设备软件                avionics_software()
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# 模拟无人机电池电量                battery_level = 100                                 # 无人机飞行函数                def fly_drone():                    global battery_level                    if battery_level > 10:                        battery_level -= 1                        print(f"无人机正在飞行，当前电量: {battery_level}%")                    else:                        print("电量不足，无人机自动降落。")                                 # 模拟无人机飞行过程                for _ in range(20):                    fly_drone()
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