AREA-H: Accelerating Robotics and Embedding Autonomy in Horticulture
Sep, 2023 - Nov, 2026, funded by Innovate UK (10073332)
This project is part of UK government’s recent initiatives to boost sustainable farming with robotics and automation. More background information please see this link.

Research in AREA-H at Loughborough
At Loughborough, our work in AREA-H focuses on localisation, place recognition, and mapping for horticultural robots operating in commercial polytunnel environments. These environments are particularly challenging for autonomy because they combine long repetitive crop rows, strong perceptual aliasing, dynamic foliage, seasonal appearance variation, reflections from plastic tunnel covers, and often unreliable GNSS.
Our research therefore looks at how to make robotic perception and localisation more robust in these realistic agricultural conditions. This includes work on:
- multi-sensor and landmark-assited localisation and mapping in polytunnels,
- 3D LiDAR-based place recognition for repetitive horticultural environments,
- cross-season robustness under crop growth and appearance change,
- benchmarking and dataset development for evaluating SLAM and localisation methods in protected horticulture.

Multi-sensor data collection and localisation/mapping research in commercial horticultural polytunnels.
Platforms and sensing
Our recent experiments use Antobot’s Assist robotic platforms equipped with 3D LiDARs, RGB cameras, IMU, GNSS and wheel odometry. In the AREA-H work, the sensing setup is enhanced by careful calibration and time synchronisation, enabling the study of visual, LiDAR and multi-sensor SLAM in realistic commercial conditions.


Recent outputs
HortiMulti: A Multi-Sensor Dataset for Localisation and Mapping in Horticultural Polytunnels
A recent output from the project is HortiMulti, a multi-sensor, cross-season dataset designed to support research on localisation and mapping in commercial strawberry and raspberry polytunnels. The dataset provides time-synchronised raw data, calibration files, reference trajectories and baseline benchmarks for visual, LiDAR and multi-sensor SLAM, and highlights the limitations of current methods in these environments.
PointNetPGAP-SLC: 3D LiDAR-Based Place Recognition for Mobile Robots in Horticulture
Another relevant output is our work on 3D LiDAR-based place recognition for horticultural robots in collaboration with Prof Cristiano Premebida, addressing the ambiguity caused by highly repetitive crop-row structures. This work develops a place-recognition approach tailored to horticultural environments and demonstrates improved retrieval performance, particularly in ambiguous segments where neighbouring rows can appear very similar.
SLAM and localisation in action
The videos below illustrate our recent localisation and mapping work in horticultural environments.
Example of multi-sensor localisation with Lidar odometry and AprilTags in a commercial polytunnel..
Example of place recognition and relocalisation behaviour in horticultural environments.
Outlook
Through AREA-H, we are building the perception, localisation and mapping capabilities needed for dependable autonomy in horticultural environments. These capabilities are important for future robotic systems that must navigate safely and robustly while supporting real agricultural tasks such as inspection, treatment and crop management in commercial polytunnels.
