user: text: Write a concise one-sentence TLDR summary of the scientific paper content below.

Title: Behaviour Suite for Reinforcement Learning

Paper content:
This paper introduces the Behaviour Suite for Reinforcement Learning, or bsuite for short.
bsuite is a collection of carefully-designed experiments that investigate core capabilities of reinforcement learning (RL) agents with two objectives.
First, to collect clear, informative and scalable problems that capture key issues in the design of general and efficient learning algorithms.
Second, to study agent behaviour through their performance on these shared benchmarks.
To complement this effort, we open source this http URL, which automates evaluation and analysis of any agent on bsuite.
This library facilitates reproducible and accessible research on the core issues in RL, and ultimately the design of superior learning algorithms.
Our code is Python, and easy to use within existing projects.
We include examples with OpenAI Baselines, Dopamine as well as new reference implementations.
Going forward, we hope to incorporate more excellent experiments from the research community, and commit to a periodic review of bsuite from a committee of prominent researchers.
The reinforcement learning (RL) problem describes an agent interacting with an environment with the goal of maximizing cumulative reward through time (Sutton & Barto, 2017) .
Unlike other branches of control, the dynamics of the environment are not fully known to the agent, but can be learned through experience.
Unlike other branches of statistics and machine learning, an RL agent must consider the effects of its actions upon future experience.
An efficient RL agent must address three challenges simultaneously:
1. Generalization: be able to learn efficiently from data it collects.
2. Exploration: prioritize the right experience to learn from.
3. Long-term consequences: consider effects beyond a single timestep.
The great promise of reinforcement learning are agents that can learn to solve a wide range of important problems.
According to some definitions, an agent that can perform at or above human level across a wide variety of tasks is an artificial general intelligence (AGI) (Minsky, 1961; Legg et al., 2007) .
Interest in artificial intelligence has undergone a resurgence in recent years.
Part of this interest is driven by the constant stream of innovation and success on high profile challenges previously deemed impossible for computer systems.
Improvements in image recognition are a clear example of these accomplishments, progressing from individual digit recognition (LeCun et al., 1998) , to mastering ImageNet in only a few years (Deng et al., 2009; Krizhevsky et al., 2012) .
The advances in RL systems have been similarly impressive: from checkers (Samuel) , to Backgammon (Tesauro, 1995) , to Atari games (Mnih et al., 2015a) , to competing with professional players at DOTA (Pachocki et al., 2019) or StarCraft (Vinyals et al., 2019) and beating the world champions at Go .
Outside of playing games, decision systems are increasingly guided by AI systems (Evans & Gao, 2016 ).
As we look towards the next great challenges for RL and AI, we need to understand our systems better (Henderson et al., 2017) .
This includes the scalability of our RL algorithms, the environments where we expect them to perform well, and the key issues outstanding in the design of a general intelligence system.
We have the existence proof that a single self-learning RL agent can master the game of Go purely from self-play (Silver et al., 2018 ).
We do not have a clear picture of whether such a learning algorithm will perform well at driving a car, or managing a power plant.
If we want to take the next leaps forward, we need to continue to enhance our understanding.

assistant: text: Bsuite is a collection of carefully-designed experiments that investigate the core capabilities of RL agents.