IoT4Food: Harnessing Internet of Things Technology (IoT) for sustainable agriculture
Abstract
430 words
The inability to obtain soil characteristics rapidly and inexpensively remains one of the biggest
challenges faced by farmers in Uganda and many African countries. Currently, the majority
of farmers do not use any scientific means to assess soil suitability for different farming
activities. Farmers classify their soils based on indigenous knowledge and experience gained
over several generations (e.g., soil colour and texture). However, these methods do not
always give accurate information. The ambition of our research is to increase farm yield
maximization for smallholder farmers through a cloud-based wireless sensor network of
Internet of Things (IoT) for instrumenting soil metrics in order to provide real-time monitoring
and data analysis for smart decision-making needed on a day-to-day and season-to-season
basis. Our innovation encompasses development and deployment of a low-cost soil conditions
monitoring technology that can be deployed up to the level of fields or farms by smallholder
farmers. The technology informs farmers’ decisions regarding the best type of crop to plant
and when to plant, when to apply fertilisers, when to irrigate and in what amount, among
others. The technology is composed of two components: the hardware soil sensing devices
and the cloud platform for soil analytics. The soil sensing devices are capable of providing
data on soil attributes including soil moisture, pH, and temperature. These devices are deployed
in gardens forming an Internet of Things (IoT). The sensors transmit the soil conditions
data to cloud-based central system where data analysis, fusion and interpretation take place.
Each device includes a Subscriber identity module (SIM) card that enables sending the
collected data over any available mobile network. The cloud-based software platform is
enriched with big data analytics for soil conditions to facilitate smart decision-making. The
cloud platform accepts raw soil condition readings from sensors deployed in the farm. The
collected data forms a big data repository upon which predictive analytics tools are deployed
to analyze, interpret and process the data into high-level meaningful information for the
farmers. The cloud platform is also capable of aggregating sensor readings from multiple
data sources and thereafter providing users with personalized information e.g., an irrigation
schedule with details of the specific amounts of water. Users can query the status of a given
field (e.g., by test message using short message service, SMS to a specified number or
using a mobile phone mobile application). The current devices and software platforms are undergoing further refinements so as to improve the accuracy of readings, packaging of the
sensor, improving the battery life and energy consumption, and inclusion of other soil attributes
as we prepare for scaling up the deployment.
Subjects
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