MAX78630+PPMEVK1#

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The MAX78630+PPMEVK1# is an evaluation and demonstration board of the successfulMAX78630 power management IC. The board is designed as a comprehensive exploration platform, which can evaluate the performance characteristics and the robustness of the MAX78630 in applications such as multicore loading, power gating, power saving, multi-domain power management, secure boot, hardware integration, and RF and thermal customization. It is designed to address the diverse needs of power management solutions for IoT, mobile devices, and embedded products.

The application field of the MAX78630+PPMEVK1# include:

• IoT applications
• Mobile devices
• Embedded industrial products

The board is based on the ultra-low-power MAX78630 power management IC. This chip integrates a wide range of features into a compact package, including power gating, dynamic voltage and frequency scaling (DVFS), power sequencing, secure boot, and RF control. It also supports up to 17 general-purpose inputs and outputs (GPIOs), which can be used for features such as wake-up and reset signals or control various external devices.

The MAX78630+PPMEVK1# board is developed as an evaluation platform for the MAX78630. It is designed to help developers quickly and easily evaluate the full range of features in the MAX78630, and to enable flexible customization of the board for their applications. The board features a wide range of onboard peripherals and sensors, as well as power management related debugging tools such as logic analyzers, I/O testers, and oscilloscopes.

One of the key features of the MAX78630+PPMEVK1# is its flexible power management capabilities. This board supports multi-domain power management, providing hardware developers with the flexibility to build their own power distribution systems. It is integrated with two real-time domain power management (RTDM), allowing designers to manage power consumption across multiple domains such as logic, memory, and peripherals. In addition, it supports external current sensing and monitoring, allowing designers to monitor the current usage of external devices connected to the board. It also features power gating and DVFS capabilities, allowing developers to reduce the power consumption of their projects.

In addition to its power management functionalities, the MAX78630+PPMEVK1# is equipped with a wide range of on-board sensors and peripherals. These include USB control, an audio codec, an Ethernet PHY, an I²C switch, a temperature and humidity sensor, an accelerometer, a barometer, an ambient light sensor, a magnetometer, and more. It also includes debugging tools for debugging various aspects of the board, such as logic analyzers, I/O testers, and oscilloscopes. These tools allow users to easily analyze the board’s performance characteristics and debug their applications.

The working principle of the MAX78630+PPMEVK1# is quite simple. Using the graphical user interface (GUI) provided on the board, the user can configure the board’s features and peripherals. After the board is configured, the main and RTDM power management ICs are enabled to provide power to the various components of the board, such as the processor, memory, peripherals, and processor accelerators. The board also supports external current sensing and monitoring, allowing designers to ensure their devices maintain low power consumption.

In summary, the MAX78630+PPMEVK1# is an excellent evaluation and demonstration board for the successful MAX78630 power management IC. It is equipped with numerous features tailored towards applications such as IoT, mobile devices, and embedded industrial products, including multi-domain power management, power gating, DVFS, secure boot, and hardware integration, as well as a range of on-board peripherals and sensors. Additionally, the board includes debugging tools for debugging various aspects of the board, allowing developers to analyze the board’s performance characteristics and debug their applications.

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