Greenhouse
Under Tech for Nature — sensors, automation, and a simulator lab for our smart greenhouse in Cyprus.
Part of Tech for Change, this system shields plants from extreme heat, smoke, and weather chaos while automation keeps growing conditions stable.
Problem
Manual farming in Cyprus faces water waste, heatwaves, fire-smoke stress, and labor pressure.
Solution
Our smart greenhouse uses sensors and a controller (Arduino/Raspberry Pi) to make real-time decisions.
Result
Healthier plants, up to 47% less water waste, and stronger food security during drought.
The Smart Greenhouse Automation System is a technically sophisticated, cost-effective solution designed to optimize plant growth through integrated sensing, automated control, and renewable energy. An Arduino UNO microcontroller manages temperature, light intensity, and physical access autonomously.
In simpler terms: an automated environment built to hold plants and give them what they need without constant human intervention. The class also used micro:bit in programming so it could use all the sensors needed for the electronic part of the smart greenhouse.
Product prototyping prevents bugs. Ecosystem prototyping prevents system failure — because the greenhouse is a network, not just one device.
What we use
Example rule: if temperature reaches 28°C, vents open; if soil is dry, precision irrigation starts.
Greenhouse Simulator Lab
We do not have the physical greenhouse yet, so this interactive simulator models how sensor data and automation can control growing conditions.
Live Sensor Controls
Live Weather Mode
Choose a location and sync real weather into the simulator controls. Or explore anywhere on the live weather map.
Live weather is off.
Live Sensor Mode
Connect your sensor and sync real readings into the simulator.
Live sensor is off.
Live Greenhouse State
Live weather is off.
Temperature (°C)
26.0 °C
Soil moisture (%)
62 %
Raw: -
Light (%)
70 %
Raw: -
Greenhouse humidity (%)
58 %