Following the machines, people and ideas shaping agriculture. Selected developments, clear context and a link to the original source.
Robotics. Intelligence. Agriculture.
139 stories matching “EY”.
QUT announced a five-year, A$41 million programme in August 2024 to develop orchard varieties suited to efficient production, combining plant genetics, crop architecture and robotic observation.
A University of Essex prototype was trialled with Wilkin & Sons in 2024, exploring affordable robotic strawberry handling and a workflow that continues beyond detaching fruit from the plant.
Cornell reported field evaluations of PhytoPatholoBot in September 2025, combining autonomous row travel and canopy imaging to assess grape disease with performance comparable to experienced scouts in the study.
A November 2025 University of Sydney report connects Salah Sukkarieh’s farm-robot research with crop measurement and trials involving women and young farmers in Cambodia, emphasizing practical access to technology.
A February 2024 university report describes a solar-powered monitoring and control approach for avocado oil machinery, developed for settings where reliable grid electricity and labour-saving infrastructure are limited.
The European project examined adoption barriers and existing tools across diverse farms, arguing that digital innovation should support ecological management and farmer control rather than add complexity by default.
A Finnish project pilot connected machines from different suppliers through shared mission software, testing how farms, robot operators and AI providers could cooperate in the same agricultural workflow.
CIRAD and partners examined digital use among 3,660 farmers in Senegal, Côte d’Ivoire and Benin, finding that access, electricity and familiar communication tools strongly shaped practical adoption.
A European research project integrated positioning, perception and variable-rate spraying into the WETA robot, addressing the difficulties of moving and applying treatments in narrow, sloping vineyard environments.
The European project combined soft gripping and machine vision in a harvesting prototype, with trials in Greece and Ireland revealing both successful picks and the impact of real facility constraints.
The completed European project reported a robotic crop-care system that combines vehicles, implements and supervisory software, with field pilots examining both operational performance and barriers to adoption.
A Wageningen report on the European harvesting robot documented faster pepper picking while highlighting the continuing limits imposed by cycle time, foliage, clustered fruit and access within greenhouse rows.
