Short Explanation
Use OctoMap when execution needs a compact 3D map for free-space, obstacle, and unknown-space queries.
OctoMap is a probabilistic 3D occupancy mapping framework based on octrees, commonly used for collision checking, navigation, and planning around observed space.
Core parameters, trigger timing, and visual before/after demo references.
Use OctoMap when execution needs a compact 3D map for free-space, obstacle, and unknown-space queries.
Prepare the scene, image, video, sensor stream, prompt, or configuration expected by the original project.
Read the produced visualization, prediction, map, trajectory, mask, grasp pose, or other documented artifact.
Readable controls and the meaning of each returned artifact.
resolutionnumberVoxel size of the octree map.
point_cloudfile3D measurements used to update occupancy probabilities.
occupancy_treeOctree storing occupied, free, and unknown cells.
query_resultOccupancy state for a requested 3D location or region.
Official resources, deployment steps, academic context, citation, and source-reported benchmark numbers.
# ROS users typically publish point clouds and consume octomap_server outputs. ros2 run octomap_server octomap_server_node
{
"tool": "octomap",
"status": "ok",
"trajectory": [
{
"label": "3D occupancy mapping",
"score": 0.87,
"output": "Probabilistic 3D occupancy map"
}
],
"timing": {
"runtime": "The official table focuses on occupancy accuracy and memory rather than a universal runtime figure.",
"device": "documented in source benchmark when available"
},
"artifacts": {
"visualization": "tools/octomap/runs/visualization.png",
"raw_predictions": "tools/octomap/runs/predictions.json"
}
}Paper identity and contribution summary.
@misc{octomap2013,
title={OctoMap: An Efficient Probabilistic 3D Mapping Framework Based on Octrees},
author={Armin Hornung and Kai M. Wurm and Maren Bennewitz and Cyrill Stachniss and Wolfram Burgard},
year={2013},
note={Autonomous Robots 2013},
url={https://www.arminhornung.de/Research/pub/hornung13auro.pdf}
}Only compact, source-reported numbers are shown here.
| Dataset | Metric | Value | Runtime | Source |
|---|---|---|---|---|
| FR-079 corridor, 5 cm resolution | Accuracy / cross-validation | 97.27% / 96.00% | Occupancy map evaluation | Official Autonomous Robots 2013 paper, Table 1 |
| Freiburg campus, 10 cm resolution | Accuracy / cross-validation | 97.89% / 95.80% | Occupancy map evaluation | Official Autonomous Robots 2013 paper, Table 1 |
| New College, 10 cm resolution | Accuracy / cross-validation | 98.79% / 98.46% | Occupancy map evaluation | Official Autonomous Robots 2013 paper, Table 1 |
| Freiburg campus, 10 cm resolution | Memory footprint | 5162.90 MB 3D grid vs 504.76 MB max-likelihood octree; 13.82 MB lossy file | Storage comparison | Official Autonomous Robots 2013 paper, Table 2 |
Official Autonomous Robots 2013 paper, accuracy table, memory table, and example occupancy maps.
Visual references from the original tool. Click any image to inspect the original size.