Design and Implementation of HidroPond: An IoT-Based Information System for Aquaponics Monitoring and Control
Abstract
Aquaponics requires timely monitoring and traceable remote control of water and feeding operations. This study designed, implemented, and functionally validated HidroPond, an IoT-based information system for aquaponics monitoring and control. Dedicated Sensor and Actuator ESP32 devices, an Arduino Nano for pH acquisition, a FastAPI backend, a Supabase database, and a Vercel-hosted web application form the architecture. Six parameters (pH, total dissolved solids, water temperature, ambient temperature, humidity, and surface distance as a water-level indicator) were aggregated for transmission at a configured three-minute interval. The actuator supports water filling, draining, pH Up and pH Down dosing, and fish feeding. During a one-day evaluation at a single aquaponics installation, all ten predefined functional checkpoints were verified across telemetry, cloud storage, web monitoring, remote control, device connectivity, and execution feedback. Command-linked feedback distinguishes submitted requests from device-reported outcomes and provides a basis for inspecting unconfirmed operations before further intervention; completion reports do not independently verify water flow, dosing volume, or feed delivery. The contribution is a field-deployed bidirectional information workflow linking telemetry, command records, execution reports, and device connectivity across physical devices and cloud services. Future work will quantify network performance, sensor accuracy, and long-term reliability and separately evaluate AIoT-based predictive control using task-specific outcome data.
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BibTeX
@article{rahmadi2026design,
title = {{Design and Implementation of HidroPond: An IoT-Based Information System for Aquaponics Monitoring and Control}},
author = {Lendy Rahmadi and Kusnita Yusmiarti and Heriansyah},
journal = {Journal of Information Systems and Informatics},
year = {2026},
month = oct,
doi = {10.63158/journalisi.v8i5.1934},
url = {https://doi.org/10.63158/journalisi.v8i5.1934},
note = {CC BY},
}
RIS
TY - JOUR
TI - Design and Implementation of HidroPond: An IoT-Based Information System for Aquaponics Monitoring and Control
AU - Lendy Rahmadi
AU - Kusnita Yusmiarti
AU - Heriansyah
PY - 2026
DA - 2026/10/24
JO - Journal of Information Systems and Informatics
DO - 10.63158/journalisi.v8i5.1934
UR - https://doi.org/10.63158/journalisi.v8i5.1934
AB - Aquaponics requires timely monitoring and traceable remote control of water and feeding operations. This study designed, implemented, and functionally validated HidroPond, an IoT-based information system for aquaponics monitoring and control. Dedicated Sensor and Actuator ESP32 devices, an Arduino Nano for pH acquisition, a FastAPI backend, a Supabase database, and a Vercel-hosted web application form the architecture. Six parameters (pH, total dissolved solids, water temperature, ambient temperature, humidity, and surface distance as a water-level indicator) were aggregated for transmission at a configured three-minute interval. The actuator supports water filling, draining, pH Up and pH Down dosing, and fish feeding. During a one-day evaluation at a single aquaponics installation, all ten predefined functional checkpoints were verified across telemetry, cloud storage, web monitoring, remote control, device connectivity, and execution feedback. Command-linked feedback distinguishes submitted requests from device-reported outcomes and provides a basis for inspecting unconfirmed operations before further intervention; completion reports do not independently verify water flow, dosing volume, or feed delivery. The contribution is a field-deployed bidirectional information workflow linking telemetry, command records, execution reports, and device connectivity across physical devices and cloud services. Future work will quantify network performance, sensor accuracy, and long-term reliability and separately evaluate AIoT-based predictive control using task-specific outcome data.
SN - 2656-5935
SN - 2656-4882
ER -