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Year 3 Research Project
AI-Enabled Multianalyte Soil Sensor Nodes for Improving Agricultural Input Utilization and Tracking Chemical Fluxes in Soil

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Description

Many proposed AgTech solutions do not take into account the environment of agriculture production. This project aims to develop, characterize, and test in real-use conditions, novel inexpensive wireless sensors for accurately measuring agriculturally-relevant soil signals such as nitrate, ammonium, phosphate, potassium, and moisture. In addition, AI-enabled algorithms will be developed to predict the spatiotemporal distribution of these signals to support 4R Nutrient Stewardship practices.

This project will be a joint effort of UC Berkeley and UC Davis researchers, with the novel soil sensors developed at UCB using printing technologies and conventional electronics; and the sensors’ performance evaluated at UCD, under controlled laboratory conditions and in instrumented commercial almond orchard and processing tomato fields. To do this, a UAV will be outfitted with a wireless readout system and programmed at UCB to navigate the field for sampling data from the sensors and uploaded to the cloud from its base station. In addition, supervised learning AI algorithms for spatiotemporal prediction of soil analytes will be developed at UCD. With rigorous testing and evaluation methods, the team will deliver affordable instrumentation for real-time soil monitoring and AI-enabled algorithms that will enhance production, profitability, and environmental stewardship.

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Team

Portrait of Isaya Kisekka

Isaya Kisekka

Principal Investigator

Portrait of Ana Arias

Ana Arias

Principal Investigator

Portrait of Xin Liu

Xin Liu

Collaborator

Portrait of Mark Mueller

Mark Mueller

Collaborator

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Publications

A thumbnail of the journal or conference cover of Vine water status mapping with multispectral UAV imagery and machine learning
Journal Article ⏐ Irrig. Sci. 2022

Vine Water Status Mapping with Multispectral UAV Imagery and Machine Learning

Tang, Zhehan,Yufang Jin,Maria del Mar Alsina,Andrew J McElrone,Nicolas Bambach-Ortiz,and William P Kustas
DOI: 10.1007/s00271-022-00788-w
A thumbnail of the journal or conference cover of Spatial–temporal modeling of root zone soil moisture dynamics in a vineyard using machine learning and remote sensing
Journal Article ⏐ Irrig. Sci. 2022

Spatial–temporal Modeling of Root Zone Soil Moisture Dynamics in a Vineyard Using Machine Learning and Remote Sensing

Kisekka, Isaya,Srinivasa R Peddinti,William P Kustas,Andrew J McElrone,Nicolas Bambach-Ortiz,Lynn McKee,and Wim Bastiaanssen
DOI: 10.1007/s00271-022-00775-1