Addressing Challenges with FPGAs in Space Using the GR716B Microcontroller
In the realm of space electronics, reliability is paramount. Every component onboard a spacecraft must withstand the harsh conditions of outer space, including extreme temperatures, vacuum, and radiation. Among these components, Field-Programmable Gate Arrays (FPGAs) play a crucial role and come with their own set of challenges.
Challenges with FPGAs in Space
Two significant challenges that affect FPGAs are power management and susceptibility to radiation-induced failures.
Ensuring stable power to an FPGA in space is not a trivial task. With the trend towards lower core voltages and the use of multiple voltage rails, supervising and sequencing these power rails is essential to guarantee system reliability.
To understand the second challenge, we need to dig a bit into the FPGA microarchitecture.
Look-Up Tables (LUTs) are the fundamental building blocks for implementing logic functions in a FPGA. A LUT typically consists of a small amount of memory that stores a truth table representing the desired logic function. This memory can be programmed to implement any arbitrary logic function of a fixed number of input signals. The memory that controls the behaviour of the LUT is called the FPGA configuration memory. The state of the configuration memory defines the logic function implemented in the FPGA fabric. For SRAM based FPGAs, the configuration memory is typically loaded from an external non-volatile memory after power-up and remains static until the system loses power.
To read the full article, click here
Related Semiconductor IP
- Root of Trust (RoT)
- Fixed Point Doppler Channel IP core
- Multi-protocol wireless plaform integrating Bluetooth Dual Mode, IEEE 802.15.4 (for Thread, Zigbee and Matter)
- Polyphase Video Scaler
- Compact, low-power, 8bit ADC on GF 22nm FDX
Related Blogs
- Is NASA's design opportunity for FPGAs in space vanishing in favor of privatized platforms?
- Open ARM-wrestling in FPGAs
- Why FPGA startups keep failing
- Over-interpreting the extended ARM
Latest Blogs
- Cadence Announces Industry's First Verification IP for Embedded USB2v2 (eUSB2v2)
- The Industry’s First USB4 Device IP Certification Will Speed Innovation and Edge AI Enablement
- Understanding Extended Metadata in CXL 3.1: What It Means for Your Systems
- 2025 Outlook with Mahesh Tirupattur of Analog Bits
- eUSB2 Version 2 with 4.8Gbps and the Use Cases: A Comprehensive Overview