Mazidi M.A., Chen S., Naimi S., Naimi S. Freescale ARM Cortex-M Embedded Programming: Using C Language (ARM books Book 3) (+source code+datasheet)

Mazidi & Naimi, 2015. - 593 p., english, EPUB, 15,4 MB. (+source code+datasheet)We have dedicated the first volume in this series to the ARM Assembly language programming and architecture since the Assembly language is standard and runs on any ARM chip regardless of who makes them. Our ARM Assembly book is called "ARM Assembly Language Programming and Architecture" and is available from Amazon in Kindle format.For the peripheral programming of the ARM, we had no choice but to dedicate a separate volume to each vendor. This volume covers the peripheral programming of the Freescale ARM KL25Z chip. Throughout the book, we use C language to access the special function registers and program the Freescale ARM FRDM peripherals. We have provided a couple of Assembly language programs for I/O ports in Chapter 2 for those who want to experiment with Assembly language in accessing the I/O ports and their special function registers. These few Assembly language programs also help to see the contrast between the C and Assembly versions of the same program in ARM.Chapters Overview
In Chapter 1, we examine the C language data types for 32-bit systems. We also explore the new ISO C99 data types since they are widely used in IDE compilers for the embedded systems.
Chapter 2 examines the simple I/O port programming and shows sample programs on how to access the special function registers associated with the general purpose I/O (GPIO) ports.
Chapter 3 shows the interfacing of the ARM chip with the real-world devices: LCD and keypad. It provides sample programs for the devices.
In Chapter 4, the interfacing and programming of serial UART ports are examined.
Chapter 5 is dedicated to the timers in ARM. It also shows how to use timers as an event counter.
The Interrupt programming of the ARM is discussed in Chapter 6.
Chapter 7 examines the ADC and DAC concepts and shows how to program them with the ARM chip. It also examines the sensor interfacing and signal conditioning.
Chapter 8 covers the SPI protocol and interfacing with sample programs in ARM.
The I2C bus protocol and interfacing of an I2C based RTC is discussed in Chapter 9.
Chapter 10 explores the relay and stepper motor interfacing with ARM.
The DC motor and PWM are examined in Chapter 11.
The Graphics LCD concepts and programming are discussed in Chapter 12.
Many high-end of ARM motherboards use DRAM memory. In Chapter 13, we examine the basic concepts of the DRAM memory chips.
The Cache memory concepts and organizations are discussed in Chapter
14. Although many low-end of ARM microcontrollers do not have on-chip cache, all the high-performance ARM chips come with on-chip cache.
The Virtual memory and memory management unit (MMU) features are available in the ARM R series. We explore the MMU of ARM in Chapter
15. Chapter 15 also covers the memory protection and MPU (memory protection unit) of ARM.
Appendix A provides an introduction to IC chip technology and IC interfacing along with the system design issues and failure analysis using MTBF. Appendix B provides a single source for KL25Z alternate pin functions. The CPU clock source is examined in Appendix C.