August 09, 2020
Writing optimising compilers is difficult. The range of programs that may be presented to the compiler is huge and the systems on which they run are complex, heterogeneous, non-deterministic, and constantly changing. The space of possible optimisations is also vast, making it very hard for compiler writers to design heuristics that take all of these considerations into account. As a result, many compiler optimisations are out of date or poorly tuned. Near the turn of the century it was first shown how compilers could be made to automatically search the optimisation space, producing programs far better optimised than previously possible, and without the need for compiler writers to worry about architecture or program specifics. The searches, though, were slow, so in the years that followed, machine learning was developed to learn heuristics from the results of previous searches so that thereafter the search could be avoided and much of the benefit could be gained in a single shot. In this paper we will give a retrospective of machine learning in compiler optimisation from its earliest inception, through some of the works that set themselves apart, to today's deep learning, finishing with our vision of the field's future.
June 05, 2026
Anshumali Shrivastava, Jason Chen, Qi Ma, Zeyu Yang
June 05, 2026
May 26, 2026
Valentin Wyart, Huy V. Vo, Jean Remi King, Josephine Raugel, Jérémy Rapin, Marc Szafraniec, Max Seitzer, Patrick Labatut, Piotr Bojanowski
May 26, 2026
May 20, 2026
Alvin W. M. Tan, Nicolas Hamilakis, Manel Khentout, Sho Tsuji, Balázs Kégl, Michael C. Frank, Angel Villar Corrales, Charles-Eric Saint-James, Dongyan Lin, Emmanuel Dupoux, Jiayi Shen, Juan Pino, Mahi Luthra, Martin Gleize, Phillip Rust, Rashel Moritz, Sheila Krogh-Jespersen, Surya Parimi, Tom Fizycki, Vanessa Stark, Yosuke Higuchi, Youssef Benchekroun
May 20, 2026
May 18, 2026
Alexandre Rezende, Rohit Patel, Steven McClain
May 18, 2026

Our approach
Latest news
Foundational models