Author: David Moore

The ARM Cortex-M series of microcontrollers are extremely popular in embedded systems due to their low cost, low power consumption, and good performance. Using a Real-Time Operating System (RTOS) allows you to better structure your application software and take advantage of features like multithreading and inter-task communication. Here is a step-by-step guide on how to

The ARM Cortex-M0 is an ultra low power 32-bit RISC CPU core designed for microcontroller applications. It is the smallest and most energy-efficient Cortex-M processor from ARM. The M0 core is optimized to provide an efficient solution for applications requiring minimal power consumption, with high performance and small code size. The power consumption of the

Yes, ARM Cortex-M processors are capable of performing division operations in hardware. While earlier Cortex-M0 and Cortex-M0+ processors lacked a hardware divider, Cortex-M3 and newer Cortex-M processors include integer division instructions that can divide 32-bit values efficiently using a single cycle hardware divider unit. Hardware division support in Cortex-M processors The Cortex-M processor series is

Interrupt latency and jitter are important performance metrics to consider when using Cortex-M processors. Interrupt latency refers to the time delay between the assertion of an interrupt request and the start of the interrupt handler execution. Jitter refers to the variation in interrupt latency from one interrupt to the next. Minimizing interrupt latency and jitter

The Cortex-M0 is an ARM microcontroller core designed for low-cost and low-power embedded applications. It is the smallest and most basic member of the Cortex-M processor family. The maximum clock frequency of the Cortex-M0 core depends on the specific implementation in silicon by ARM partners and vendors. However, the typical maximum frequency ranges from 50

Integer division on ARM processors is done using the SDIV and UDIV instructions for signed and unsigned division respectively. Here is a detailed guide on how integer division works on ARM and how to utilize the division instructions. Overview of Integer Division on ARM On ARM processors, integer division is done in the Arithmetic Logic

The ARM Cortex M0 is one of the most popular ARM processor cores used in microcontrollers and other embedded systems. It is an extremely low power and low cost 32-bit processor optimized for simple embedded applications. One common task in embedded programming is creating delays or timing loops. On the Cortex M0, this can be

Enabling and disabling interrupts is a critical aspect of working with ARM Cortex-M microcontrollers. Interrupts allow the processor to respond to events and requests from peripheral devices. However, incorrectly enabling or disabling interrupts can lead to issues like race conditions, deadlocks, and reduced performance. This article provides a step-by-step guide on how to properly enable

The bootloader is a crucial software component in ARM Cortex-based systems. It is responsible for initializing the hardware, setting up the environment for the operating system, and eventually loading the OS kernel. Understanding how the boot process works provides valuable insight into the startup sequence and configuring the bootloader for different needs. Overview of the

Getting QEMU to run an ARM Thumb binary requires configuring QEMU to emulate an ARM processor in Thumb mode. The key steps are: choosing the right ARM emulator in QEMU, enabling Thumb mode, setting up the memory layout, and specifying the ARM binary to load. With the right settings, QEMU can successfully execute ARM Thumb