pkivolowitz/asm_book

Features

• Instruction Set Architecture References - Provides a comprehensive technical reference for translating high-level logic into ARMv8 machine-level instructions.
• ARMv8 Assembly Programming - Serves as a comprehensive guide for writing low-level machine instructions specifically for ARMv8.
• Cross-Platform - Implements techniques to ensure assembly code builds consistently across multiple platforms.
• ARMv8 Assembly Programming Education - Serves as a comprehensive guide and tutorial for learning to write machine instructions for the ARMv8 architecture.
• Cross-Platform Learning Guides - Offers instructional guidance on writing portable assembly code that functions across different operating systems.
• Assembly Optimization Guides - Acts as a comprehensive instructional resource for writing and optimizing low-level machine code on ARMv8.
• Assembly - Provides educational materials for translating source code into binaries for hardware execution.
• Cross-Platform Assembly Development - Provides instructions for unifying symbol naming and memory addressing to ensure assembly builds across different operating systems.
• High-Level Language Assembly Integration - Provides instructions for executing assembly routines from high-level languages using runtime wrappers.
• Low-Level Systems Programming - Provides a reference for gaining precise control over hardware resources through manual memory management.
• Manual Register Allocation - Teaches explicit management of data flow and temporary storage through manual assignment of CPU registers.
• Calling Conventions - Details the use of standardized register and stack layouts for passing data between high-level languages and assembly.
• High-Level Language Integration - Explains how to integrate assembly routines with higher-level languages using standardized calling conventions.
• Instruction Flow Control - Teaches the construction of loops and conditional statements through low-level program counter manipulation.
• Floating Point Arithmetic - Implements mathematical operations for 32-bit and 64-bit floating point numbers using dedicated hardware instructions.
• Instruction Set Architecture Learning - Teaches the fundamental operations of the ARMv8 instruction set and how high-level logic translates to binary.
• Memory Layouts - Provides guidance on organizing data layouts and memory alignment for efficient hardware access.
• Native Binary Toolchains - Guides users through the pipeline of preprocessing, assembling, and linking to produce runnable native binaries.
• Binary Assembly - Explains the process of converting human-readable assembly source code into executable binary data.
• Build Pipelines - Provides a technical walkthrough of the preprocessing, assembling, and linking pipeline.
• Toolchain Workflows - Details the full assembly toolchain workflow from preprocessing and assembling to the final linking stage.
• Binary Linkers - Covers the process of resolving memory addresses for global and local labels during the binary linking stage.
• Cross-Platform Assembly Symbol Unification - Implements methods to unify symbol naming conventions ensuring assembly code builds across different operating systems.
• Floating Point Computation - Covers high-precision mathematical operations using dedicated hardware registers and precision instructions.
• Bit Manipulation Techniques - Teaches low-level bitwise operations, bit field implementation, and endianness handling.
• Memory Alignment Utilities - Explains how to ensure data structures are padded and aligned in memory to optimize hardware access speed.
• Naming Conventions - Applies standardized naming rules for identifiers to ensure cross-platform source code compatibility.
• Symbol-To-Address Mapping - Explains the mapping of source code identifiers to memory locations for global and local labels.

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