1. Introduction and Matrix Multiplication
1:00:202. Bentley Rules for Optimizing Work
1:20:103. Bit Hacks
1:18:544. Assembly Language & Computer Architecture
1:17:345. C to Assembly
1:21:306. Multicore Programming
1:16:467. Races and Parallelism
1:14:398. Analysis of Multithreaded Algorithms
1:17:34Lecture 9: What Compilers Can and Cannot Do (6.172)
1:18:46Lecture 10: Measurement and Timing (6.172)
1:21:28Lecture 11: Storage Allocation (6.172)
1:05:26Lecture 12: Parallel Storage Allocation (6.172)
1:17:21Lecture 13: The Cilk Runtime System (6.172)
1:21:47Lecture 14: Caching and Cache-Efficient Algorithms (6.172)
1:18:23Lecture 15: Cache-Oblivious Algorithms (6.172)
1:21:47Lecture 16: Nondeterministic Parallel Programming (6.172)
1:22:12Lecture 17: Synchronization Without Locks (6.172)
1:20:10Lecture 18: Domain Specific Languages and Autotuning (6.172)
1:11:22Lecture 20: Speculative Parallelism & Leiserchess (6.172)
1:23:03Lecture 21: Tuning a TSP Algorithm (6.172)
1:20:53Lecture 22: Graph Optimization (6.172)
1:18:405. C to Assembly
Professors of Electrical Engineering and Computer Science
This lecture details the compilation process from C source code to x86-64 assembly, analyzing the intermediate representation of LLVM IR and its translation to machine instructions. Key mapping principles between high-level language constructs and low-level hardware operations are demonstrated.
MIT 6.172 Performance Engineering of Software Systems, Fall 2018
Instructor: Tao B. Schardl
View the complete course: https://ocw.mit.edu/6-172F18
YouTube Playlist: https://www.youtube.com/playlist?list=PLUl4u3cNGP63VIBQVWguXxZZi0566y7Wf
4. Assembly Language & Computer Architecture
Next · Lecture 66. Multicore Programming
Seminar notes & discussion
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