activity
20122026
most citedAn Introduction to Deep Reinforcement Learning

1.3k citations · 4.8k across the 58 of their papers we have counts for

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Showing 2023Show all

8 papers · 1 filter

cond-mat.mes-hall2023

Learning and Controlling Silicon Dopant Transitions in Graphene using Scanning Transmission Electron Microscopy

Max Schwarzer, Jesse Farebrother, Joshua Greaves +8

We introduce a machine learning approach to determine the transition dynamics of silicon atoms on a single layer of carbon atoms, when stimulated by the electron beam of a scanning…

cs.LG2023★ 3 cited

Small batch deep reinforcement learning

Johan Obando-Ceron, Marc G. Bellemare, Pablo Samuel Castro

In value-based deep reinforcement learning with replay memories, the batch size parameter specifies how many transitions to sample for each gradient update. Although critical to th…

cs.LG2023

Policy Optimization in a Noisy Neighborhood: On Return Landscapes in Continuous Control

Nate Rahn, Pierluca D'Oro, Harley Wiltzer +2

Deep reinforcement learning agents for continuous control are known to exhibit significant instability in their performance over time. In this work, we provide a fresh perspective…

cs.LG2023★ 1 cited

Bootstrapped Representations in Reinforcement Learning

Charline Le Lan, Stephen Tu, Mark Rowland +4

In reinforcement learning (RL), state representations are key to dealing with large or continuous state spaces. While one of the promises of deep learning algorithms is to automati…

cs.LG2023

The Statistical Benefits of Quantile Temporal-Difference Learning for Value Estimation

Mark Rowland, Yunhao Tang, Clare Lyle +3

We study the problem of temporal-difference-based policy evaluation in reinforcement learning. In particular, we analyse the use of a distributional reinforcement learning algorith…

cs.LG2023★ 5 cited

Bigger, Better, Faster: Human-level Atari with human-level efficiency

Max Schwarzer, Johan Obando-Ceron, Aaron Courville +3

We introduce a value-based RL agent, which we call BBF, that achieves super-human performance in the Atari 100K benchmark. BBF relies on scaling the neural networks used for value…

cs.LG2023

Proto-Value Networks: Scaling Representation Learning with Auxiliary Tasks

Jesse Farebrother, Joshua Greaves, Rishabh Agarwal +4

Auxiliary tasks improve the representations learned by deep reinforcement learning agents. Analytically, their effect is reasonably well understood; in practice, however, their pri…

cs.LG2023★ 3 cited

An Analysis of Quantile Temporal-Difference Learning

Mark Rowland, Rémi Munos, Mohammad Gheshlaghi Azar +6

We analyse quantile temporal-difference learning (QTD), a distributional reinforcement learning algorithm that has proven to be a key component in several successful large-scale ap…