This study path systematically builds understanding of computer architecture, starting with fundamental compiler interactions and processor optimizations. It progresses through memory management, cache hierarchies, and advanced branch prediction, culminating in the exploration of GPU-native execution and specialized AI hardware architectures.

This foundational lecture establishes how compilers translate code and the inherent limitations, setting the stage for understanding how hardware design must accommodate software.
Building on compiler understanding, this lecture demonstrates how data-oriented design principles directly impact memory footprint and execution speed, crucial for efficient hardware utilization.
With a grasp of data layout, this step introduces cache-oblivious algorithms, illustrating how to design software that performs well across different memory hierarchies without explicit tuning.
Moving beyond memory, this lecture delves into advanced branch prediction, a critical processor optimization technique that significantly impacts instruction pipeline efficiency and overall performance.
Leveraging knowledge of processor optimizations and memory, this lecture explores GPU-native SQL engines, showcasing how specialized architectures handle massive parallel data processing.
Finally, this step examines Mojo, a language designed for AI hardware, integrating concepts of compilers, data layout, and specialized accelerators for cutting-edge computational demands.
By John L. Hennessy & David A. Patterson
Turing Laureates Hennessy and Patterson's definitive reference on memory hierarchies, instruction-level parallelism, and domain-specific accelerators.
By Thomas H. Cormen, Charles E. Leiserson, Ronald L. Rivest et al.
Co-authored by MIT lecturers Charles Leiserson and Ronald Rivest—the canonical syllabus textbook for MIT 6.006 and 6.046J algorithm design and analysis.