THE ULTIMATE EMBEDDED LINKER SCRIPTING & MEMORY MAPPING: A Hands-On Guide to Mastering GNU LD for ARM & RISC-V Systems
English | October 31, 2025 | ASIN: B0FYP5YT4C | 76 pages | Epub | 176.25 KB
English | October 31, 2025 | ASIN: B0FYP5YT4C | 76 pages | Epub | 176.25 KB
Stop Fighting Your Firmware. Claim Total Control Over Your Embedded System's Memory.
Every professional embedded engineer hits the same wall: linker script anxiety.
It happens when a critical bug, a silent stack overflow, an unpredictable RAM corruption, or a crippling memory map error, sends your project back to square one. You're left debugging obscure error codes, wondering why your carefully written C code is failing in production.
The default settings are fine for basic projects, but if you're building a reliable, high-performance, or resource-constrained system, you need the mastery that only an expert-level linker script can provide.
The Definitive, Hands-On Guide for Embedded Memory Mastery
This book strips away the complexity of the GNU Linker (ld), offering the practical, production-ready knowledge you need to transform your code from shaky prototypes to rock-solid firmware.
Inside, you will move beyond the basics to master the art of custom memory architecture on the world's most popular platforms: ARM Cortex-M and RISC-V.
After reading this book, you will finally be able to:
End Stack & Heap Failures: Learn to precisely map and guard your memory sections to eliminate runtime crashes and undefined behavior.
Slash Code Size: Apply linker-driven Garbage Collection and sophisticated section placement to create the smallest, fastest binaries possible.
Achieve Portability: Develop reusable, highly optimized linker scripts that work flawlessly across different chips and compilers.
Debug Instantly: Understand the secrets of the Linker Map File (.map) to instantly visualize memory usage and find the root cause of every linking error.
Master Advanced Concepts: Take full control of Vector Tables, C Runtime initialization, and complex DRAM/SRAM relocation for robust boot-up sequences.
This isn't theory. This is the practical, hard-won knowledge senior architects use to build the most stable products on the market. If you are serious about firmware performance and stability, this is your ultimate guide to low-level control.

