If you’re unfamiliar, Spinning Up ships with an introduction to this material; it’s also worth checking out the RL-Intro from the OpenAI Hackathon, or the exceptional and thorough overview by Lilian Weng. Thanks to the many people who contributed to this launch: Alex Ray, Amanda Askell, Ashley Pilipiszyn, Ben Garfinkel, Catherine Olsson, Christy Dennison, Coline Devin, Daniel Zeigler, Dylan Hadfield-Menell, Eric Sigler, Ge Yang, Greg Khan, Ian Atha, Jack Clark, Jonas Rothfuss, Larissa Schiavo, Leandro Castelao, Lilian Weng, Maddie Hall, Matthias Plappert, Miles Brundage, Peter Zokhov & Pieter Abbeel. It can be pretty disheartening to get halfway through a project, and only then discover that there’s already a paper about your idea. If you’re looking for inspiration, or just want to get a rough sense of what’s out there, check out Spinning Up’s key papers list. Don’t overfit to existing implementations either. Iterate fast in simple environments. Learn more. Study existing implementations for inspiration, but be careful not to overfit to the engineering details of those implementations. We’re also going to work with other organizations to help us educate people using these materials. download the GitHub extension for Visual Studio, fixed typo in /docs/spinningup/extra_pg_proof2.rst, remove docs/_build, as that gets built on-the-fly, Merge branch 'master' of github.com:openai/spinningup. Hopefully, you feel a bit more prepared to be a part of it after reading this! Spinning Up in Deep RL consists of the following core components: We have the following support plan for this project: Spinning Up in Deep RL is part of a new education initiative at OpenAI which we’re ‘spinning up’ to ensure we fulfill one of the tenets of the OpenAI Charter: "seek to create a global community working together to address AGI’s global challenges". Ideal attendees have software engineering experience and have tinkered with ML but no formal ML experience is required. By systematically evaluating what would happen if you were to swap them out with alternate design choices, or remove them entirely, you can figure out how to correctly attribute credit for the benefits your method confers. You should organize your efforts so that you implement the simplest algorithms first, and only gradually introduce complexity. You don’t need to know how to do everything, but you should feel pretty confident in implementing a simple program to do supervised learning. But this also sets up the risks: it’s possible that the tweaks you have in mind for an algorithm may fail to improve it, in which case, unless you come up with more tweaks, the project is just over and you have no clear signal on what to do next. You can always update your selection by clicking Cookie Preferences at the bottom of the page. The claim you’ll make in your work is that those design decisions collectively help, but this is really a bundle of several claims in disguise: one for each such design element. Become familiar with at least one deep learning library. Also, watch videos of your agent’s performance every now and then; this will give you some insights you wouldn’t get otherwise. Learn more. Run high-integrity experiments. Remove stochasticity as a confounder. The goal of this column is to help you get past the initial hurdle, and give you a clear sense of how to spin up as a deep RL researcher. You signed in with another tab or window. We were inspired to build Spinning Up through our work with the OpenAI Scholars and Fellows initiatives, where we observed that it's possible for people with little-to-no experience in machine learning to rapidly ramp up as practitioners, if the right guidance and resources are available to them. Now you’ve come up with an idea, and you’re fairly certain it hasn’t been done. You don’t need to know every single special trick and architecture, but the basics help. Set up fair comparisons. When you hammer away at an unsolved task, you might try a wide variety of methods, including prior approaches and new ones that you invent for the project. This is because broken RL code almost always fails silently, where the code appears to run fine except that the agent never learns how to solve the task. Deep RL refers to the combination of RL with deep learning. Welcome to Spinning Up in Deep RL!¶ User Documentation. You should probably start with vanilla policy gradient (also called REINFORCE), DQN, A2C (the synchronous version of A3C), PPO (the variant with the clipped objective), and DDPG, approximately in that order. That even when you’re following a recipe, reproducibility is a challenge. This lets you make each separate claim with a measure of confidence, and increases the overall strength of your work. This will make sure that comparisons are fair. Instead of thinking about existing methods or current grand challenges, think of an entirely different conceptual problem that hasn’t been studied yet. Bad hyperparameters can significantly degrade RL performance, but if you’re using hyperparameters similar to the ones in papers and standard implementations, those will probably not be the issue. Also worth keeping in mind: sometimes things will work in one environment even when you have a breaking bug, so make sure to test in more than one environment once your results look promising. Get comfortable with the main concepts and terminology in RL. For the unfamiliar: reinforcement learning (RL) is a machine learning approach for teaching agents how to solve tasks by trial and error. We hosted ~90 people at our office and engaged nearly 300 more through our livestream. Developing that knowledge requires you to engage with both academic literature and other existing implementations (when possible), so a good amount of your time should be spent on that reading. Frame 3: Create a New Problem Setting. This is to enforce a weak form of preregistration: you use the tuning stage to come up with your hypotheses, and you use the final runs to come up with your conclusions. We've designed Spinning Up to help people learn to use these technologies and to develop intuitions about them. ML Engineering for AI Safety & Robustness: a Google Brain Engineer’s Guide to Entering the Field, by Catherine Olsson and 80,000 Hours. To get there, you’ll need an idea for a project. If nothing happens, download Xcode and try again. Experiments at this stage will take longer—on the order of somewhere between a few hours and a couple of days, depending. Write your own implementations. Reimplementing prior work is super helpful here, because it exposes you to the ways that existing algorithms are brittle and could be improved. Spinning Up implementations are compatible with Gym environments from the Classic Control, Box2D, or MuJoCo task suites. It’s especially frustrating when the work is concurrent, which happens from time to time! Beware of random seeds making things look stronger or weaker than they really are, so run everything for many random seeds (at least 3, but if you want to be thorough, do 10 or more). Spinning Up consists of crystal-clear examples of RL code, educational exercises, documentation, and tutorials. This is a common failure mode for people who are new to deep RL, and if you find yourself stuck in it, don’t be discouraged—but do try to change tack and work on a simpler algorithm instead, before returning to the more complex thing later.

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