Skip to content
Review Open access

Heterogeneous agricultural robots: a review of collaborative sensing and control, challenges and opportunities

Aug 2026 · Frontiers in Plant Science · Vol 17 · 0 citations · 131 references
Medicine

TL;DR

This paper presents a comprehensive review of collaborative sensing and control technologies for heterogeneous agricultural robots working in both structured agricultural environments and representative field farming scenarios, and identifies critical challenges in heterogeneous agricultural robot systems.

Abstract

A critical shift towards improved efficiency is currently taking place in modern agriculture, sustainability, and intelligence, driven by population growth, resource constraints, labor shortages, and increasing environmental pressure. Agricultural robots, especially heterogeneous robotic systems, have emerged as key enablers of this transformation by enabling precise, automated, and large-scale operations. This paper presents a comprehensive review of collaborative sensing and control technologies for heterogeneous agricultural robots working in both structured agricultural environments (greenhouses, orchards, and facility cultivation) and representative field farming scenarios. Focusing on recent advances over the past three years, we systematically analyze five representative robotic platforms: sprinkler irrigation robots, unmanned ground vehicles (UGVs), unmanned aerial vehicles (UAVs), agricultural robotic arms, and underground robots, from the perspectives of sensing, control, and cooperative operation. The review highlights key control methodologies, including intelligent path planning, adaptive and learning-based control, visual navigation, multi-sensor fusion, and energy-aware optimization. Furthermore, air–ground–underground integrated systems are discussed as an emerging paradigm for full-space agricultural coverage. Beyond technological progress, this paper identifies critical challenges in heterogeneous agricultural robot systems, including cooperative communication reliability, real-time safe control under dynamic environments, energy and endurance constraints, and system-level security. Finally, future research directions are outlined, emphasizing integrated communication and sensing, dual-arm and multi-arm collaborative manipulation, and heterogeneous multi-robot cooperative control frameworks.

Read PDF

Similar papers

Review Open access Oct 2026

Smart Agriculture Technology: A Review of Robotic Platforms, Sensing Modalities, Artificial Intelligence, Datasets, Evaluation Metrics, and Future Research Directions

Smart agriculture has moved beyond isolated precision-farming tools toward integrated cyber–physical systems that combine robotics, multimodal sensing, connectivity, artificial intelligence, and data-driven decision support. This review synthesizes recent developments in the field using a systematic critical review app...

Ghaith Al-refai, M. Al-Sarayreh · 0 citations
Review Open access Aug 2026

Precision Farming in Contemporary Agriculture: A Critical Review of Recent Advances, Agricultural Value, and Implementation Gaps

Precision farming has evolved from a site-specific input-management concept into a connected agricultural management architecture that combines georeferenced sensing, Global Navigation Satellite Systems, remote and proximal sensing, Internet of Things networks, machine learning, variable-rate actuation, and increasingl...

D. Bhatt · 0 citations
Preprint Aug 2026

Agri-Sim: Agricultural Simulation Platform for Embodied Intelligence Evaluation in Greenhouse Robotics

Agricultural-robot development requires simulation environments that can jointly support realistic scene construction, virtual sensing, autonomous navigation, motion planning, and manipulation-task execution. This paper presents Agri-Sim, a Unity and ROS2-based simulation platform for the closed-loop development and fu...

Shu-Han Shi, Zhenfeng Xue, Ming-Hao Mei et al. · 0 citations
Review Open access Sep 2026

Review of Key Technologies for Harvesting Embodied Intelligent Robots in Facility Horticulture: From Multimodal Active Sensing to Self-Evolving Closed Loops

A literature-grounded Four-Tier framework is proposed, comprising Multimodal Active Sensing, Semantic Context Recognition and Understanding, Knowledge-Driven Decision-Making and Experience Evolution, and Skilled and Compliant Execution, for robotic harvesting.

Yue Sun, Wei-Dong Jia, Yun-Fei Wang et al. · 0 citations
#edge computing Review Open access Aug 2026

Agricultural Cyber-Physical Systems: Research Progress in Perception-Driven Multi-Robot Coordination and Logistics in Unstructured Environments

Driven by the escalating global agricultural workforce shortage and the urgent need to meet the “Zero Hunger” mandate, the automation of harvest–transport workflows has emerged as a cornerstone of Agriculture 4.0. This paper highlights the latest research progress in multi-robot collaborative logistics scheduling acros...

Jun Zhang, Tian-Tian Jing, Zi-Qi Tian et al. · 0 citations
Review Open access Aug 2026

From Research to Deployment in Autonomous Agricultural Machinery: A Review of Path-Planning Technologies Against a Deployability Assessment Framework

Global labour shortages in the agricultural sector, combined with diminishing arable land and a growing population, are driving investment in autonomous agricultural machinery. Autonomous systems that can navigate crop environments and perform planting, treatment, and harvesting alongside humans are required, but the g...

S. Wane, R. Shamshiri, Wei Guo et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.