The goal of this challenge is to advance the state-of-the-art in robotic manipulation, a key skill required to deploy robots in the real world. We will host multiple robotic platforms (see below) at the Max Planck Institute for Intelligent Systems. Participants will submit their code as they would for a cluster, and it will then be executed automatically on our platforms. This will allow teams to gather hundreds of hours of real robot data with minimal effort.
The teams will have to solve a series of tasks ranging from relatively simple to extremely hard, from pushing a cube to picking up a pen and writing. The idea is to see how far the teams are able to push, solving the most difficult tasks could be considered a breakthrough in robotic manipulation.
Motivation
Experimentation on real robots is very costly in terms of time and money. For this reason, a large part of the reinforcement learning community uses simulators, such as those available through OpenAI Gym, to develop and benchmark algorithms. However, insights gained in simulation do not necessarily translate to real robots, in particular for tasks involving complex interaction with the environment.
The purpose of this competition is to alleviate this problem by allowing participants to experiment on a real robot as easily as on a simulator. As tasks, we propose a number of dexterous manipulation problems, such as pushing, grasping, flipping and spinning objects.
We developed robot hardware and software which is suitable for this setup. The robots will be hosted at our institute and participants will execute their algorithms remotely, through a convenient and simple interface.
Each team will have a budget of hundreds of robot hours, without any restrictions on the algorithms they execute.
We hope that this competition and potential follow-ups will
i) lead to a more inclusive and coordinated robotic learning community and
ii) allow for generation of orders of magnitude more data than what is possible in individual labs with typical robotic platforms.
These factors may help advancing the state of the art in dexterous manipulation, which has myriad of applications, such as construction, cleaning, care of the sick and elderly, agriculture and assembly.
For the results of 2020, an aggregated and detailed summary is provided in Benchmarking Structured Policies and Policy Optimization for Real-World Dexterous Object Manipulation and the following pre-print on arxiv.
