The Profit-boosting Power of Connected Farming

Industrial Internet of Things (IIoT) technologies are taking on an increasingly vital role in improving the quality and quantity of agricultural production. Connected devices — robotics, drones, and on-ground sensors, among others — can help farmers obtain essential data to make informed decisions, yielding multiple business advantages. Here are just a few of the common benefits of IoT application for the farmer in the field:

• Data collection and calibration. Smart devices collect information and transfer it to a platform, which can then structure it for use. This means that farmers gain a database of valuable insights into crop conditions, water requirements, equipment efficiency and so on.
• Cost and waste reduction. Smart devices embedded with AI help farmers track any anomalies in their crops or the condition of their animals, as well as helping them optimise the use of resources like water, land and energy; thus minimising expenditure and waste.
• Increased efficiency. IoT solutions offer the ability to automate specific processes such as fertilisation and robot harvesting, etc. They also enable real-time monitoring which can mitigate potential issues.
• Enhanced quality. Smart devices help farmers monitor the conditions of the connected farm and the quality of their crops, allowing them to anticipate and avoid challenges and risks and, thus, maintaining a high-quality yield.

A connected farm: top cases for IoT implementation in agribusiness

According to research by McKinsey & Company, well-implemented connectivity within the agricultural sector could add around $500 billion to the global GDP by 2030. But choosing the right technologies to invest in is key. Here’s our rundown of the smartest, most pivotal use cases for connected tech in the field:

1. Drones for farming

Drones have become one of the most widely adopted IoT devices within agriculture. In fact, according to a report by MarketsandMarkets, the agricultural drone market is projected to leap from $1.2 billion in 2020 to $5.7 billion by 2025.

Embedded with thermal and multispectral sensors, drones can survey crops and transfer real-time data about yield conditions to various connected devices. Using digital mapping, farmers can easily detect problem patches and then work to eliminate the issues affecting them. Apart from their surveillance capabilities, drones can apply pesticides, plant seeds over a specified area, monitor crops and perform various other functions that previously required human labour. What’s more, farmers can program drones to take into account areas which require extra attention, thereby optimising costs.

With the introduction of agricultural drones, the time spent on field spraying could be reduced by 40%-60% compared with manual spraying. Additionally, drones can help farmers save 30%-50% on the cost of chemicals. So, it’s clear to see that drone technology has huge positive implications for optimising resources and efficiencies in farming.

2. IoT sensors for crop observation

Connectivity streamlines the crop observation and management process, allowing round-the-clock monitoring through connected devices installed throughout a field — without physical human presence.

Smart sensors can provide up-to-the-minute data on weather conditions, soil humidity, light levels across different planting areas and various other parameters that help farmers choose the best time to plant and harvest their crops. In fact, according to research by the University of Lethbridge, precision agriculture technologies have the potential to increase crop yields by up to 20%.

Collated data enables farmers to spot crop damage, monitor progress, identify pests and forecast production from a specific area. Moreover, since sensors provide real-time data, as soon as any deviations from the norm are detected, farmers can take preventive measures to minimise their losses.

3. Connected devices to monitor livestock

In the same way connectivity enables farmers to monitor crop production, IoT sensors and wearables attached to livestock can keep tabs on animals’ state of health and physical location. Being able to instantly locate an animal eliminates the need for employees to physically check on them, hence reducing overall labour spend. Also, equipped with connected sensors, the ventilation and heating systems in barns can be automatically adjusted remotely, thereby improving the living conditions of livestock with minimal human effort.

Then there are devices which can measure animals’ temperature, heart rate, blood pressure and other health indicators, which helps farmers identify diseases during the early stages, when they’re far easier and less expensive to treat. This also means that an infected animal can be quickly identified and isolated, preventing illnesses from spreading throughout a herd.

Birthing is another example. When an animal goes into labour, sensors can send a notification to the farmer allowing them to provide the attention needed to facilitate a smooth delivery.