GDBus Architecture & Programming Guide
A practical guide to GDBus architecture and D-Bus programming for Linux applications.
Read guide ↗Practical explanations of firmware, Linux drivers, processor architecture, and hardware debugging.
A practical guide to GDBus architecture and D-Bus programming for Linux applications.
Read guide ↗A practical engineering guide to D-Bus architecture and message-based inter-process communication on Linux.
Read guide ↗Boot process, architecture, and key differences between legacy BIOS and modern UEFI.
Read article ↗Compare registers, instruction sets, exception levels, MMU setup, and boot-time implications.
Read article ↗A practical study guide to registers, instructions, Linux system calls, stack frames, and worked examples.
Read notes ↗A practical guide to 64-bit x86 assembly using NASM and GNU assembler syntax.
Read guide ↗Understand partition tables, BIOS and UEFI boot paths, and where the bootloader fits.
Read article ↗Why a CPU and DMA device can see different data, and how cache maintenance helps.
Read article ↗Read access, erase behavior, XIP, and where each flash technology fits.
Read article ↗static int demo_probe(struct device *dev)
{
dev_info(dev, "device ready");
return 0;
}Follow device matching, resource setup, and the driver's probe callback.
Read article ↗Compare CPU overhead, latency, and when each hardware interaction model makes sense.
Read article ↗driver → hardware
trace · debug · validateFollow compatible strings, resources, and the path from DTS to a driver's probe callback.
Read article ↗driver → hardware
trace · debug · validateUnderstand how Linux bus models affect matching, resource access, and driver design.
Read article ↗driver → hardware
trace · debug · validateLearn what can sleep, why interrupt handlers must stay short, and how to defer work.
Read article ↗driver → hardware
trace · debug · validateTrace a userspace system call through the VFS to a driver's file_operations callback.
Read article ↗driver → hardware
trace · debug · validateBuild maintainable kernel/userspace commands with validation, stable structures, and compat in mind.
Read article ↗See how multicore CPUs manage cached copies—and why coherence is not the same as consistency.
Read article ↗Compare notification and data exchange mechanisms for coordinating processor cores.
Read article ↗Work from link training and enumeration to BAR assignment and realistic performance measurements.
Read article ↗Follow early firmware stages and the architecture-specific contract at kernel handoff.
Read article ↗