Internet-of-Things (IoT) / Smart Agriculture

Measure the variation that matters—not every location equally.

Machine-learning-based sensor clustering for controlled-environment agriculture.
Published Question → model → evidence
Conceptual greenhouse diagram showing candidate sensor positions and a measure, cluster and select workflow for representative environmental sensing.

Conceptual illustration of sensor clustering: collect temperature and humidity data, group similar conditions, and identify representative sensing locations. Uyeh et al., Computers and Electronics in Agriculture (2022).

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The Question

If a greenhouse has 56 sensor locations, how do you find the minimum set that captures meaningful variation without redundant monitoring?

My Contribution

Online K-Means++ clustering, psychrometric feature construction, multi-season validation.

What the record shows

Demonstrates reliable microclimate estimation from a reduced sensor footprint, lowering deployment costs.

What this does—and does not—establish

Optimizes sensor placement for specific geometries and seasons; re-calibration may be necessary for structural changes.

Publication record

An online machine learning-based sensors clustering system for efficient and cost-effective environmental monitoring in controlled environment agriculture

Daniel Dooyum Uyeh et al. · Co-author: Abraham Osinuga. Computers and Electronics in Agriculture 199: 107139, 2022.

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