Power management solutions for scalable and efficient FPGA system design.
FPGA-based systems demand complex multirail power architectures with precise sequencing, high current delivery and proven reliability. NXP's PMIC and SBC solutions simplify power tree design, streamline system integration and support scalable architectures, helping engineers accelerate development, reduce complexity and achieve robust performance across industrial, automotive and communication applications.
FPGA technology powers a wide range of automotive, industrial, and communications systems that demand high performance, flexibility, and scalability. NXP power management solutions simplify complex FPGA power architectures through efficient multi-rail regulation, precise sequencing, and robust system monitoring, helping accelerate development and improve overall system reliability.
Functional safety SBC solutions provide power management, system monitoring, watchdog, and fail-safe control for FPGA-based automotive and industrial platforms.
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AN4991: Power Management for Zynq-7000 FPGA Design guidance for power management and sequencing requirements for Zynq-7000 FPGA platforms using NXP PMIC solutions. |
Application Note |
Mar 16, 2015 |
Rev 2.0 |
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AN13433: Power Architecture for Zynq Ultra-Scale+ MPSoC Provides power tree design and PMIC solution guidance for Zynq Ultra-Scale+ platforms including multirail power and sequencing. |
Application Note |
Nov 8, 2021 |
Rev 1.0 |
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AN13320: NXP PMIC solution for XILINX UltraScale+ MPSoC ZU2/ZU3 Processor NXP power solutions for Xilinx Zynq UltraScale+ MPSoC ZU2/ZU3, covering cost and performance options. |
Application Note |
Jan 27, 2022 |
Rev 2.0 |
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AN13432: NXP PMIC solution for XILINX UltraScale+ MPSoC ZU4 / ZU5 / ZU6 / ZU7 / ZU9 Processor NXP PMIC power solutions for Xilinx Zynq UltraScale+ MPSoC ZU4 to ZU9, with cost and performance options. |
Application Note |
Nov 8, 2021 |
Rev 1.0 |
FPGA systems typically require multiple power rails with strict sequencing, high current capability and tight voltage accuracy. These requirements increase design complexity and make integrated PMIC solutions critical for efficient and reliable system operation.
NXP PMIC and SBC devices integrate multiple power rails, sequencing, monitoring and safety features in a single solution. This simplifies power tree design, reduces component count and accelerates system integration for FPGA-based applications.
A multistage architecture using HV, system, core, and general PMICs enable flexible power distribution from high-voltage input to FPGA core and peripheral domains, improving efficiency, scalability and system reliability.
Developers can use NXP development boards such as multiprocessor demo platforms and OTP programming boards to evaluate power architectures, configure PMIC settings, and validate system-level performance.
Developers can use NXP development boards such as multiprocessor demo platforms and OTP programming boards to evaluate power architectures, configure PMIC settings, and validate system-level performance.
NXP promotes responsible AI through a five-principle ethics framework: nonmaleficence, human autonomy, explainability, vigilance and privacy-by-design. It emphasizes fairness, robustness and inclusivity, advocating for diverse datasets to prevent bias. NXP also supports AI literacy and workforce upskilling to ensure ethical deployment and long-term reliability in edge environments.
NXP combines PMIC products, reference designs, development boards and documentation resources to provide a complete enablement ecosystem, reducing development time and simplifying power design challenges.
NXP PMIC solutions support a wide range of FPGA applications including industrial automation, robotics, networking, edge AI and automotive systems requiring scalable and efficient power architectures.