3 Minute Thesis Competition 2026

3 Minute Thesis Competition 2026

Formal & Physical Sciences Mathematics PBMathematics
🎙 Oxford Mathematics 👥 736K 📅 July 28, 2026 ⏱ 21 min 👁 1K 📄 science communication 🧭 2026-08-13
Available in: English (current) Français

Keywords

machine learningice cap collapseoptimizationeigenvalue problemspercolationcausal inferencecontinuous logic

Summary

The video is a recording of the 2026 3 Minute Thesis Competition at Oxford Mathematics, where seven postgraduate students present their research in under three minutes each. The topics span a wide range of applied and pure mathematics: using machine learning to accelerate simulations of atmospheric re-entry for spacecraft heat shields; modeling the collapse of the Barnes Ice Cap in the Canadian Arctic using a PDE-based approach; developing a parameter-free accelerated gradient descent algorithm for non-convex optimization; accelerating sequences of eigenvalue problems using subspace recycling and row subsampling; extending results from Bernoulli percolation to Gaussian percolation; developing a robust method for causal inference with imperfect instrumental variables; and using continuous logic to axiomatize subclasses of C*-algebras. Each presentation is concise but provides a clear overview of the research problem, methodology, and key results. The competition is organized by the Oxford Mathematics SIAM-IMA Student Chapter, and winners are announced at the end.

151 words

Critical Evaluation

Value of the Information & Strength of the Argument

The video provides a valuable overview of current research in mathematics, showcasing the diversity and depth of work being done by early-career researchers. Each presentation is well-structured, with a clear statement of the problem, the approach, and the significance of the work. The argumentation is generally solid, with presenters providing justifications for their methods and results. For example, the first presenter explains the need for machine learning to accelerate expensive simulations, and the second presenter demonstrates how a simple mathematical model can isolate the collapse mechanism of an ice cap. The presentations are persuasive and effectively communicate the importance of the research.

111 words

Title / Content Match

The title accurately reflects the content: a 3-minute thesis competition featuring seven presentations.

Quality & Reliability

8/10

The video presents seven research projects by postgraduate students at Oxford, each with clear methodology and results. The content is peer-reviewed in the sense of being presented in a formal academic competition. However, the format (3-minute talks) limits depth, and the claims are not independently verified in the video.

Key Moments

Cited Sources

Contribution & Novelties

The video provides a snapshot of cutting-edge research in mathematics, with each presentation offering a novel contribution to its field. The first presentation introduces a machine learning approach to accelerate simulations of rarefied gas dynamics, which is crucial for spacecraft re-entry. The second presents a mathematical model for the collapse of an ice cap, highlighting the concept of irreversibility. The third introduces a parameter-free accelerated gradient descent algorithm with optimal convergence rates. The fourth presents a method for accelerating sequences of eigenvalue problems using subspace recycling and row subsampling. The fifth extends results from Bernoulli percolation to Gaussian percolation, contributing to the understanding of phase transitions. The sixth develops a robust method for causal inference with imperfect instrumental variables. The seventh uses continuous logic to axiomatize subclasses of C*-algebras, providing a framework for quantum mechanics.

Pour aller plus loin :

  • Mixture Density Networks — Relevant to the first presentation on machine learning for collision dynamics.
  • Navier-Stokes equations — Background for the first presentation on fluid dynamics.
  • Barnes Ice Cap — Directly relevant to the second presentation.
  • Percolation theory — Relevant to the fifth presentation.
  • Causal inference — Relevant to the sixth presentation.
  • C*-algebra — Relevant to the seventh presentation.

199 words

Radar Profile

The radar profile shows high scores in quality of information and global reliability, reflecting the academic rigor of the presentations. The quantity of information is moderate due to the short format, and the technical level is high, indicating a specialized audience.

Reliability 8/10