Arm

Debugging application failures when generating projects for Cortex-M1 devices in Vitis can be challenging without proper logging and tracing techniques. The key is having visibility into the build process to identify where and why failures occur. This article provides guidance on enabling logs in Vitis, interpreting log messages, and leveraging tracing utilities like Arm Streamline…

When working with Xilinx’s Vitis tools to build projects targeting ARM Cortex-M1 processors, there are some common configuration mistakes that are easy to make. These misconfigurations can lead to hard-to-debug issues or problems getting your application to run properly on the target hardware. In this article, we’ll go over some of the most common pitfalls…

When working with XSCT or XSDK in Vitis for Cortex-M1, you may encounter connection issues with the debug server. This can prevent loading programs or debugging on your target board. There are several potential causes and solutions for these connection problems. Confirm Hardware Setup First, double check that your hardware is set up properly. Make…

The “Failed to call GENERATE_APP” error when building a Vitis project for the Cortex-M1 processor can be frustrating, but is usually caused by a few common issues. Here are some things to try when encountering this error: Ensure the BSP is configured properly The Board Support Package (BSP) contains crucial configuration information for building projects…

When exporting Cortex-M1 hardware platforms from Vivado to use in Vitis, users may encounter various issues that prevent the platform from being properly created. This can cause errors and problems when trying to build and run applications in Vitis using the exported platform. Some common Vitis issues with Cortex-M1 platforms exported from Vivado include: Missing…

When creating new projects in Vitis IDE for Cortex-M1 processors, users may encounter failures during project creation with errors indicating missing Board Support Package (BSP) files or hardware definition files. This is often caused by an incomplete installation of the ARM development tools or BSPs, corrupted BSP packages, or incorrect configuration of the Vitis IDE…

ARM processors are known for their power efficiency compared to x86 processors typically found in PCs and laptops. There are several architectural and design differences that contribute to the improved energy efficiency of ARM processors: Reduced Instruction Set Computer (RISC) ARM processors use a RISC architecture which means they rely on simpler, streamlined instructions that…

Programming Cortex-M23 microcontrollers in bare metal mode using uVision5 can be challenging for beginners. Here are some tips to help you get started and be productive with this powerful toolchain. 1. Understand the Cortex-M23 architecture The Cortex-M23 is one of Arm’s microcontroller cores designed for deeply embedded applications. It has a 3-stage pipeline, supports the…

The Cortex-M23 is part of ARM’s Cortex-M processor family, designed for microcontroller applications requiring high efficiency in a small physical and memory footprint. The Cortex-M23 is ARM’s most compact microcontroller cores, making it suitable for space-constrained embedded applications such as wearables, medical devices, IoT sensors, and more. uVision5 from Keil is a popular integrated development…

Configuring the linker options correctly is crucial for building efficient and optimized applications for Cortex-M23 devices using uVision5. The linker is responsible for combining object files and libraries into the final executable. The linker options control memory layout, symbol resolution, regions for code and data, and more. Setting these options incorrectly can result in a…