Record real-world data from hardware for use in simulation.

Use recorded real-world data in simulation.

使用SOC模块模拟并部署闭环反馈控制算法到MCU。

Identify and resolve issues with respect to peripheral settings and task scheduling early during development.

Partition real-time motor control application on to multiple processors to achieve design modularity and improved control performance.

开发DC-DC BUCK转换器功率调节器应用程序。具有电源转换模拟和部署的典型挑战包括：

Manage the asynchronous network commands to a high-speed, closed-loop DC-DC buck converter control algorithm executing the C2000 processor by using the Arm Cortex-M processor. In the TMS320F28388D and similar processor families, the C2000 processors execute the hard-realtime portions of the algorithm and use peripherals, such as ADC and PWM. In contrast, the Arm Cortex-M processor manages the high-level asynchronous communication, such as UDP or TCP, that connect the MCU to external systems. This example implements a technique that extends the DC-DC buck converter in the the DC-DC Buck Converter on MCU example. You can apply this technique to any design in which a hard-realtime process executes on the C2000 MCU and a high-level asynchronous communication executes on the Arm Cortex-M processor.

使用控制法律加速器（CLA）管理闭环DC-DC电源转换系统的电压模式控制（VMC）算法。辅助软件电流保护环由C2000 CPU管理。在TMS320F28379D和类似的处理器家族中，CLA执行算法的硬实时部分可以与硬件perhipherals（例如ADC和PWMS）连接。C2000 CPU更适合于需要多任务处理，处理异步事件以及与其他内核的通信的算法的硬实时部分。虽然此示例扩展了在MCU示例上开发的DC-DC Buck转换器，但呈现的策略可以应用于任何设计，其中资源密集的硬实时过程在CLA上执行和实时多重执行任务过程在C2000 CPU上运行。