G.IoT.To
G.IoT.To. is our new, modular data collection system designed for greenhouses. It adapts to the specific needs of each facility, allowing real-time monitoring of key parameters. With G.IoT.To., you can optimize irrigation strategies and achieve success with a wide range of crops.
Precision growing
Improve and scale up your production with real-time monitoring and data collection.
G.IoT.To is the innovative decision support system for collecting and saving data in the cloud. With the data collected by G.IoT.To, it is possible to improve the sustainability of your crop by optimizing irrigation planning and supplying the plant with only the necessary elements. This minimizes the waste of water, nutrients, and fertilizers. Thanks to Aranet’s proprietary radio frequency technology, we can collect data from sensors in greenhouses located far apart from each other (up to 3 km), ensuring secure and reliable data transmission.
The modular technology of the base stations minimizes installation costs, allowing for the deployment of multiple reliable and thoroughly tested sensors specifically for the greenhouse sector. Installation is very fast, and the sensors do not require power cables as they are battery-powered. This makes the entire system extremely flexible to meet customer needs, eliminating the clutter and risk of damage associated with numerous cables.
Data is easily accessible to the user:
- Visually on the MyAgeon cloud platform (via tables, charts, etc.)
- Downloadable directly in Excel format
Leverage the power of the cloud:
The cloud platform allows you to view data in tabular format or easily interpretable graphs with extensive customization possibilities. You can further personalize your experience by selecting specific time intervals, monitoring all required parameters and keeping track of the battery charge level of individual sensors.
MyAgeon offers the possibility to set alarms and notifications for user-defined thresholds. This allows you to maintain continuous control over your greenhouse environment, even remotely, enabling prompt intervention to prevent potential crop damage.
Cloud-based data management allows you to manage multiple greenhouses within a single platform. Thanks to the extremely scalable technology of the cloud, various G.IoT.To systems are easily expandable. You can add more sensors at any time with a few simple steps. Furthermore, sensors can be easily relocated between greenhouses without the need to move cables or power outlets.
The benefits of using theG.IoT.To system
20%
Increased production
+30
Measurable and calculable parameters
4
Investment payback
Trusted data
- Greenhouse-tested sensors - Reliable connections - Historical data archive
Water saving
- Drainage water analysis and monitoring - Substrate and microenvironment monitoring
Flexibility and modularity
- Battery-operated sensors - Quick and easy integration
Continuous monitoring
- real-time data - Online visualization on the platform
Data collection unit that acts as a gateway for data archiving and as a web server. It can be used both indoors and outdoors with the possibility of connecting to the internet via Wi-Fi, Ethernet and LTE SIM.
Sensor for measuring air temperature and relative humidity in greenhouses, equipped with protection against solar radiation for accurate measurements.
Sensor for measuring air temperature and relative humidity, ideal for indoor environments such as vertical farms.
Sensor for monitoring CO2 concentration, atmospheric pressure and temperature.
Rain gauge
Rain gauge to monitor the amount of rain and precipitated water. For agricultural applications in meteorological stations.
Sensor for monitoring water temperature perfect for both immersion and flow measurements.
Sensor for measuring plant leaf temperature, which makes it possible to determine the vapor pressure deficit.
Weight sensor to monitor growth (biomass) and plant development to optimize environmental conditions and improve yield.
This sensor measures photosynthetically active radiation to determine the amount of light plants are exposed to. Based on this data, you can calculate the instantaneous (W/m2) and cumulative energy (J/cm2) .
Stem diameter sensor
Sensor for monitoring stem diameter microvariations to investigate the effects of irrigation rate and other environmental factors on water balance and plant growth.
Sap flow sensor
The sap flow sensor is designed to monitor relative changes in sap flow rate in the petiole or small shoots of plants.
Weight sensor for pots and trays
Precision weighing sensor, features easy leveling to ensure consistency and wirelessly monitor plant development and individual irrigations. Seedlings can be weighed into their respective growing trays to minimize handling.
Sensor for monitoring the percentage of water content in the substrate or soil.
Once inserted directly into the substrate, this sensor allows you to monitor the temperature (T°), the electrical conductivity (EC) and the water content (WC) allowing you to control the irrigation and the supply of nutrients to the plants to optimize their growth .
Wet-150(soil sensor)
This sensor, once inserted directly into the substrate, allows you to monitor the temperature (T°), electrical conductivity (EC) and water content (WC), allowing you to control irrigation and the supply of nutrients to the plants to optimize their growth .
Plant drainage measurement tool using a self-emptying spoon to measure water in milliliters.
Plant irrigation measurement tool using a self-emptying spoon to measure water in milliliters.
Sensor for measuring the quantity of drain water from slabs, pots and open-bags, equipped with a specific allocation for optimal installation of EC and pH meters.
Water pH meter with a glass/ref combination pH electrode, a transmitter for calibration and a radio wave transmitter for constant monitoring in the greenhouse. It works effectively even in contaminated liquids.
Water electrical conductivity meter with built-in temperature compensator and transmitter for calibration, perfect for constant monitoring in the greenhouse.
Dissolved oxygen probe
The immersion probe measures dissolved oxygen using the fluorescence phenomenon.
Includes internal sensor for automatic temperature compensation. The probe is equipped with a device for self-cleaning by means of a jet of compressed air.