TY - GEN
T1 - The case for AI-integrated monitoring in soft fruit production
T2 - development of the SPADE system
AU - Jennings, Edward
AU - Awan, Shahid M.
AU - Ramzan, Naeem
AU - Shakir, Muhammad Z.
PY - 2026/6/3
Y1 - 2026/6/3
N2 - Soft fruit production is highly sensitive to environmental fluctuations and inconsistent human monitoring, which often leads to significant data gaps and suboptimal yields. The paper presents the SPADE system, an independent AI-integrated monitoring plat form designed for longitudinal field data collection in soft fruit production. Through a 103-day field trial, we demonstrate that manual monitoring by volunteers resulted in a 45.9% data loss rate, whereas the SPADE system maintained a consistent monitoring schedule regardless of operator availability. Technical evaluation shows that our edge-deployed quantized MobileNet V2 model achieved a plant identification accuracy of 90% and a precision of 1.000, ensuring reliable resource allocation without cloud dependency. Critically, plants under AI-integrated precision monitoring reached the f lowering stage approximately one week earlier than those subjected to manual feeding and watering schedules. While current yields were limited by first-season bare-root growth cycles, these results establish that automated precision monitoring provides a distinct developmental advantage. Future work will transition the SPADE system from a passive monitoring tool to an active control framework, integrating federated learning to optimize nutrient delivery across decentralized growing networks, thereby reducing the environmental footprint of soft fruit production.
AB - Soft fruit production is highly sensitive to environmental fluctuations and inconsistent human monitoring, which often leads to significant data gaps and suboptimal yields. The paper presents the SPADE system, an independent AI-integrated monitoring plat form designed for longitudinal field data collection in soft fruit production. Through a 103-day field trial, we demonstrate that manual monitoring by volunteers resulted in a 45.9% data loss rate, whereas the SPADE system maintained a consistent monitoring schedule regardless of operator availability. Technical evaluation shows that our edge-deployed quantized MobileNet V2 model achieved a plant identification accuracy of 90% and a precision of 1.000, ensuring reliable resource allocation without cloud dependency. Critically, plants under AI-integrated precision monitoring reached the f lowering stage approximately one week earlier than those subjected to manual feeding and watering schedules. While current yields were limited by first-season bare-root growth cycles, these results establish that automated precision monitoring provides a distinct developmental advantage. Future work will transition the SPADE system from a passive monitoring tool to an active control framework, integrating federated learning to optimize nutrient delivery across decentralized growing networks, thereby reducing the environmental footprint of soft fruit production.
KW - plant monitoring
KW - sustainable agriculture
KW - agricultural artificial intelligence (AI)
KW - Internet of Things (IoT) machine learning
KW - scalable AI devices
U2 - 10.1109/SusTech67720.2026.11536557
DO - 10.1109/SusTech67720.2026.11536557
M3 - Conference contribution
SN - 9798331592592
T3 - IEEE Conference Proceedings
BT - The 13th IEEE Conference on Technologies for Sustainability (SusTech 2026)
PB - IEEE
CY - Piscataway, New Jersey
ER -