Agriculture is increasingly becoming a
field where technology can make a measurable difference. From monitoring
environmental conditions to using data to make better decisions, technologies
such as the Internet of Things (IoT) and Artificial Intelligence (AI) are
opening new possibilities for farmers.
Recently, I had the opportunity to be
part of a project exploring this intersection through BRIDGE-AI: Smart
Mushroom.
The project brings together IoT,
Artificial Intelligence, predictive analytics and agriculture to develop a
smarter approach to mushroom cultivation.
Why Mushroom Farming?
Mushroom cultivation is highly
dependent on environmental conditions.
Factors such as temperature, humidity
and carbon dioxide (CO₂) concentration can significantly influence the growing
environment. Maintaining suitable conditions manually can be challenging,
particularly for smallholder farmers.
This creates an opportunity for
technology to assist with monitoring and decision-making.
Instead of relying entirely on periodic
manual measurements, a smart farming system can continuously collect
environmental data and make that information available to the farmer.
The Idea Behind the Smart Mushroom Farm
The concept behind the project is
relatively straightforward:
Sense → Collect → Analyse → Respond.
Sensors installed within the mushroom
growing environment collect information about the conditions inside the room.
That information can then be
transmitted to a monitoring system where it can be visualised and analysed.
With the addition of AI and predictive
analytics, the system can potentially identify patterns and anomalies in the
collected data and provide useful insights to the farmer.
The system is also designed with
practical accessibility in mind, including remote monitoring and localised
alerts.
The
IoT Component
My contribution to the project has been
focused on the IoT side of the system.
The IoT layer provides the connection
between the physical mushroom-growing environment and the digital monitoring
platform.
Among the environmental parameters
being considered are:
- Temperature
- Relative humidity
- CO₂ concentration
- Light intensity
Different sensors are used to measure
these parameters, including DHT22 sensors for temperature and humidity, an
SCD30 sensor for CO₂, and a BH1750 sensor for light intensity.
The collected measurements form the
foundation on which the rest of the smart system can operate.
More Than Just Monitoring
One of the things I find most
interesting about this project is that the goal isn't simply to display sensor
readings. Monitoring is only the first step. Once reliable data is available,
it can be used to understand the behaviour of the growing environment and
support better decisions. For example, if humidity begins moving outside the
desired range, the system could identify the change and trigger an appropriate
response through the relevant control equipment. This creates the possibility
of moving from passive monitoring to intelligent environmental control.
Bringing Different Fields Together
Working on this project has also shown
me how interconnected different engineering and technology disciplines can be.
An agricultural problem can require
knowledge from:
Electrical Engineering → Sensors →
Embedded Systems → IoT → Data Analysis → AI → Automation
None of these areas exists completely
in isolation.
The challenge is bringing them together
into a system that actually works in the real world.
What I'm Learning
One of my biggest takeaways so far is
that engineering isn't only about designing individual components. It's about
understanding how those components interact as a complete system. A sensor can
be accurate, but if it is positioned incorrectly, the data may not represent
the environment accurately. A monitoring platform can look impressive, but if
the underlying data is unreliable, the system becomes much less useful.
This project has therefore been an
opportunity to apply concepts I've encountered through Electrical and
Electronics Engineering to a practical agricultural problem.
Looking Ahead
The Smart Mushroom project is still a
learning journey, and there is much more to develop, test and refine.
What excites me most is the possibility
of seeing the complete system operate as one: sensors collecting real-world
information, IoT infrastructure transmitting it, analytics interpreting it, and
intelligent systems helping farmers make better decisions.
Technology becomes much more meaningful
when it can move beyond the laboratory and solve problems that affect people's
everyday lives.
For me, this project is an opportunity
to explore exactly that.
From sensors to data, and from data to decisions, this is what smart agriculture can look like.
#IoT #SmartAgriculture
#ArtificialIntelligence #Agritech #ElectricalEngineering
Comments
Post a Comment