GrowGuard Projects

GrowGuard sensors in an organic vegetable farm in Cluj.

This first project shows GrowGuard used directly inside a vegetable tunnel, where local readings matter more than a general weather average. Sensors were installed among tomato rows to help the growing team follow crop status, soil conditions, irrigation, fertilization and disease-risk context from one application.

LocationCluj County, Romania
CropVegetables in tunnel
Sensors16 Dragino LoRaWAN
FocusSoil, irrigation, fertilization
PlatformGrowGuard web, Android and iOS
GrowGuard sensors installed in tomato rows inside an organic vegetable farm in Cluj Sensor devices and cables installed in the crop tunnel

Useful data from the crop itself, not only from the forecast.

In an organic vegetable farm, decisions need to be precise. Too much water can create root-zone stress and disease pressure, too little water can slow growth, and fertilization needs to be read together with crop stage and soil behavior. GrowGuard helped the team keep those signals in one operational view, with sensors placed inside the crop and readings available from the app.

In a tomato tunnel, differences between rows, warmer zones, shaded areas or places where water remains longer in the soil can change the decision. Sensor placement matters because GrowGuard can connect readings to the real place in the crop, then place them next to history, forecast, alerts and reports.

This project used 16 Dragino LoRaWAN measurement points: 6 temperature and humidity sensors for the greenhouse microclimate, 5 soil pH sensors for soil reaction and 5 soil EC sensors for conductivity and fertilization control. The combination made it possible to monitor air, root-zone behavior and nutrition-related parameters at the same time, not just a single isolated temperature value.

01 Crop monitoring

Plant status read through data

Temperature, humidity, soil, EC, pH, battery and sensor status can be followed inside the app, together with useful history intervals.

02 Irrigation

Clearer checks after watering

Local readings help verify how water remains around the roots and where the crop may be under excess or deficit.

03 Fertilization

EC and pH in context

When sensors transmit EC and pH, GrowGuard can highlight local imbalances and support the conversation around active nutrition.

04 Forecast

Forecast beside real measurements

Forecast helps interpret cold nights, heat, persistent humidity, condensation and useful ventilation windows.

Extended disease-risk alerts for mixed farms.

The latest GrowGuard update extends the predictive phytosanitary engine from one crop profile to multi-branch monitoring: floriculture, vegetable crops, fruit growing, viticulture, field crops and urban trees. For vegetable crops, the engine can track favorable windows for late blight/Phytophthora, Botrytis, powdery mildew, tomato early blight, local root stress and other useful signals.

  • multiple active crop branches;
  • branch-specific phenophase;
  • optional crop/species selection, including tomato, pepper, cucumber and cucurbits;
  • local sensor assistance, including leaf wetness when the payload provides it;
  • alert history and explanations for field scouting;
  • push and email notifications for relevant risk events.

These alerts are conservative decision-support signals. They do not prescribe treatments, doses or withholding periods; the user validates symptoms, crop stage, local guidance and product labels.

Floriculture project

Flower greenhouses in Aiud monitored with 10 MQTT sensors.

The second GrowGuard project was deployed in a floriculture operation in Aiud, Alba County, where ornamental plants, hanging baskets and production areas need stable microclimate conditions. Ten MQTT sensors were connected to monitor flower greenhouses, helping the team follow temperature, humidity, zone differences, behavior after irrigation and the risk created by persistent humidity.

LocationAiud, Alba County
CropFlower greenhouses
Sensors10 MQTT sensors
FocusMicroclimate and alerts
TechnologyMQTT + GrowGuard
MQTT sensor installed in a flower greenhouse in Aiud for microclimate monitoring MQTT sensor near hanging baskets and flowers in an Alba County greenhouse

10 MQTT sensors for temperature, humidity and operational control.

In flower greenhouses, losses do not only come from lack of water or major equipment failures. Sometimes the issue starts with one wetter zone, a temperature difference between greenhouse ends, delayed ventilation or a long interval where the air remains too humid. GrowGuard helped the Aiud team see these differences by zone, instead of relying on one general reading.

The ten MQTT sensors were placed in relevant greenhouse points: near hanging baskets, in areas with different air movement and close to plants that react quickly to microclimate changes. The sensors published data through MQTT and GrowGuard turned those readings into history, comparisons and alerts when values moved outside the target intervals for floriculture.

For daily management, this supports better decisions around ventilation, shading, heating, irrigation and crop scouting. Instead of finding a problem only after leaves, buds or flowers already show stress, GrowGuard gives an earlier signal: temperature climbs too high, humidity remains elevated, zone differences become relevant or the forecast suggests a period when the greenhouse needs closer inspection.

01 MQTT

Flexible integration with existing sensors

Sensors publish JSON data through MQTT, and GrowGuard can map temperature, humidity, battery, signal and other useful greenhouse values.

02 Zones

Microclimate comparison between areas

Readings can be followed by zone, making differences between hanging baskets, production benches and work lanes visible.

03 Alerts

Notifications for important deviations

GrowGuard can send push and email alerts when temperature or humidity move outside the thresholds set for sensitive species.

04 Reports

History for decisions and team discussions

Charts and history help explain the last hours or days, including changes after irrigation, ventilation or weather shifts.

Practical monitoring for flower greenhouses.

This project shows how continuous monitoring can be used in flower greenhouses in Aiud, Alba County: sensor data is shown in the same dashboard as forecast, sensor map and notifications, helping the team see faster when a zone needs ventilation, shading, irrigation or crop-health inspection. It is useful for ornamental plant growers, nurseries, garden centers and commercial greenhouses that want to reduce losses caused by unstable microclimate.

  • temperature and humidity monitoring in flower greenhouses;
  • MQTT integration for existing sensors and controllers;
  • alerts when values move outside target intervals;
  • history for ventilation, irrigation, heating and crop scouting;
  • comparison between hanging flower zones and production areas;
  • reports and team access for the greenhouse operation.

Want to monitor a similar crop?

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