Revisiting Flatness-aware Optimization in Continual Learning with Orthogonal Gradient Projection
Yang, E
Shen, L
Wang, Z
Liu, S
Guo, G
Wang, X
Tao, D
IEEE Transactions on Pattern Analysis and Machine Intelligence
volume PP
issue 99
1-12
(06 Feb 2025)
Remarks on the Higgs Branch of 5d Conformal Matter
De Marco, M
Del Zotto, M
Grimminger, J
Sangiovanni, A
(06 Feb 2025)
Faster Lead-Acid Battery Simulations from Porous-Electrode Theory: I. Physical Model
Sulzer, V
Chapman, S
Please, C
Howey, D
Monroe, C
(05 Feb 2019)
Faster Lead-Acid Battery Simulations from Porous-Electrode Theory: II. Asymptotic Analysis
Sulzer, V
Chapman, S
Please, C
Howey, D
Monroe, C
(05 Feb 2019)
Geometric martingale Benamou–Brenier transport and geometric Bass martingales
Backhoff, J
Loeper, G
Obloj, J
Proceedings of the American Mathematical Society
volume 153
4945-4960
(10 Sep 2025)
Bounds on heavy axions with an X-ray free electron laser
Halliday, J
Marocco, G
Beyer, K
Heaton, C
Nakatsutsumi, M
Preston, T
Arrowsmith, C
Baehtz, C
Goede, S
Humphries, O
Garcia, A
Plackett, R
Svensson, P
Vacalis, G
Wark, J
Wood, D
Zastrau, U
Bingham, R
Shipsey, I
Sarkar, S
Gregori, G
Physical Review Letters
volume 134
issue 5
(06 Feb 2025)
Mon, 17 Feb 2025
16:00
16:00
C6
Hoheisel's theorem on primes in short intervals via combinatorics
Jori Merikoski
(Oxford)
Abstract
Hoheisel's theorem states that there is some $\delta> 0$ and some $x_0>0$ such that for all $x > x_0$ the interval $[x,x+x^{1-\delta}]$ contains prime numbers. Classically this is proved using the Riemann zeta function and results about its zeros such as the zero-free region and zero density estimates. In this talk I will describe a new elementary proof of Hoheisel's theorem. This is joint work with Kaisa Matomäki (Turku) and Joni Teräväinen (Cambridge). Instead of the zeta function, our approach is based on sieve methods and ideas coming from additive combinatorics, in particular, the transference principle. The method also gives an L-function free proof of Linnik's theorem on the least prime in arithmetic progressions.
Reply: Yes, the human brain has around 86 billion neurons
Goriely, A
Brain
awaf049
(06 Feb 2025)
Convergence of the environment seen from geodesics in exponential last-passage percolation
Martin, J
Sly, A
Zhang, L
Journal of the European Mathematical Society
volume 27
issue 3
877-970
(27 Jan 2025)
Global Structure in the Presence of a Topological Defect
Debray, A
Ye, W
Yu, M
(30 Jan 2025)
http://arxiv.org/abs/2501.18399v1