Evaluation toolbox for Pogema environment
Project description
POGEMA Toolbox
Overview
The POGEMA Toolbox is a comprehensive framework designed to facilitate the testing of learning-based approaches within the POGEMA environment. This toolbox offers a unified interface that enables the seamless execution of any learnable MAPF algorithm in POGEMA.
- Firstly, the toolbox provides robust management tools for custom maps, allowing users to register and utilize these maps effectively within POGEMA.
- Secondly, it enables the concurrent execution of multiple testing instances across various algorithms in a distributed manner, leveraging Dask for scalable processing. The results from these instances are then aggregated for analysis.
- Lastly, the toolbox includes visualization capabilities, offering a convenient method to graphically represent aggregated results through detailed plots.
Installation
Just install from PyPI:
pip install pogema-toolbox
Features
Register and use custom algorithms
To register an algorithm and then create an inference instance, one can use:
from pogema import BatchAStarAgent
# Registring A* algorithm
ToolboxRegistry.register_algorithm('A*', BatchAStarAgent)
# Creating algorithm
algo = ToolboxRegistry.create_algorithm("A*")
The algorithm should provide a method act, which receives a batch of observations.
A more complex example is an algorithm with tunable hyperparameters. Here is an example with the Follower approach:
ToolboxRegistry.register_algorithm('Follower', FollowerInference, FollowerInferenceConfig,
follower_preprocessor)
For the full evaluation code example, please refer to Follower repository
Register custom maps
To create a custom map, the user first needs to define it using ASCII symbols or by uploading it from a file, and then register it using the toolbox:
from pogema_toolbox.registry import ToolboxRegistry
# Creating cusom_map
custom_map = """
.......#.
...#...#.
.#.###.#.
"""
# Registring custom_map
ToolboxRegistry.register_maps({"custom_map": custom_map})
Evaluation script
Example of the POGEMA Toolbox configuration for parallel testing of the RHCR approach and visualization of its results.
environment: # Configuring Test Environments
name: Environment
on_target: 'restart'
max_episode_steps: 128
observation_type: 'POMAPF'
collision_system: 'soft'
seed:
grid_search: [ 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 ]
num_agents:
grid_search: [ 8, 16, 24, 32, 48, 64 ]
map_name:
grid_search: [
validation-mazes-seed-000, validation-mazes-seed-001, validation-mazes-seed-002,
validation-mazes-seed-003, validation-mazes-seed-004, validation-mazes-seed-005,
]
algorithms: # Specifying algorithms and it's hyperparameters
RHCR-5-10:
name: RHCR
parallel_backend: 'balanced_dask'
num_process: 32
simulation_window: 5
planning_window: 10
time_limit: 10
low_level_planner: 'SIPP'
solver: 'PBS'
results_views: # Defining results visualization
01-mazes:
type: plot
x: num_agents
y: avg_throughput
width: 4.0
height: 3.1
line_width: 2
use_log_scale_x: True
legend_font_size: 8
font_size: 8
name: Mazes
ticks: [8, 16, 24, 32, 48, 64]
TabularThroughput:
type: tabular
drop_keys: [ seed, map_name]
print_results: True
The configuration is split into three main sections. The first one details the parameters of the POGEMA environment used for testing. It also includes iteration over the number of agents, seeds, and names of the maps (which were registered beforehand). The unified grid_search
tag allows for the examination of any existing parameter of the environment. The second part of the configuration is a list of algorithms to be tested. Each algorithm has its alias (which will be shown in the results) and name, which specifies the family of methods. It also includes a list of hyperparameters common to different approaches, e.g., number of processes, parallel backend, etc., and the specific parameters of the algorithm.
Citation
If you use this repository in your research or wish to cite it, please make a reference to our paper:
@misc{skrynnik2024pogema,
title={POGEMA: A Benchmark Platform for Cooperative Multi-Agent Navigation},
author={Alexey Skrynnik and Anton Andreychuk and Anatolii Borzilov and Alexander Chernyavskiy and Konstantin Yakovlev and Aleksandr Panov},
year={2024},
eprint={2407.14931},
archivePrefix={arXiv},
primaryClass={cs.LG},
url={https://arxiv.org/abs/2407.14931},
}
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