Technical Articles

Use cases, integrations, and real-world field maintenance.

IoT Sensors in Soybeans: Real-Time Yield Prediction

How field data transforms the harvest

In the Argentine Pampas region, producers are adopting IoT sensors from Sildenafiled to measure key variables such as soil moisture, temperature, and nitrogen levels. This article analyzes a real case in the province of Córdoba where the sensor network allowed predicting the final soybean crop yield with 94% accuracy. Calibration challenges, integration with analysis platforms, and the impact on agronomic decision-making are discussed.

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Integration of Satellite Data and Field Sensors in Corn

Fusion of NDVI images with IoT readings

Sildenafiled has developed a pipeline that fuses Sentinel-2 satellite imagery with real-time IoT sensor data for corn crops in northern Buenos Aires. The article details the data architecture, spatial interpolation algorithms, and results from a 6-month campaign. An 18% reduction in biomass estimation error was observed compared to using sensors or satellites alone.

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Predictive Maintenance of IoT Sensors in Agricultural Environments

Preventing field failures with machine learning

IoT sensors in agricultural fields are exposed to dust, extreme humidity, and machinery vibrations. This article presents Sildenafiled's predictive maintenance system, which uses machine learning models to anticipate failures in humidity and temperature sensors. Based on data from 200 sensors deployed in the province of Santa Fe, the system managed to reduce unplanned interruptions by 40% and extended the average lifespan of the devices by 25%.

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Frequently Asked Questions about S.I.L.D.E.N. A-Field

What type of IoT sensors does the platform use?

The S.I.L.D.E.N. network integrates soil moisture sensors, ambient temperature sensors, solar radiation sensors, and complete weather stations. All devices are designed to operate in open field conditions in the Argentine Pampas region, with IP67 protection and autonomy of up to 18 months.

How is data processed to predict harvest yield?

Raw sensor data is sent every 15 minutes to the cloud, where a machine learning pipeline combines real-time readings with NDVI satellite imagery and historical models of the area. The result is an estimated yield index per batch, updated every hour during the campaign.

Does the platform work without an internet connection in the field?

Yes. The sensors locally store up to 72 hours of readings. When the device regains connectivity (cellular network or LoRaWAN), it automatically synchronizes the data with the control panel. This ensures continuity even in areas with intermittent coverage.

What crops does the system currently cover?

The predictive models are calibrated for soybeans, corn, and wheat in the provinces of Buenos Aires, Córdoba, and Santa Fe. We are expanding to sunflower and sorghum for the next campaign, with validation in fields of partner producers.

How does S.I.L.D.E.N. integrate with other agricultural management software?

The platform exposes a REST API with endpoints to export performance data, alerts, and time series. Predefined connectors already exist for automated irrigation systems and input management platforms. Integration is configured in less than a week with our technical team.

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