Previous Page  18 / 28 Next Page
Information
Show Menu
Previous Page 18 / 28 Next Page
Page Background

18

The company’s development of crop spraying systems

demonstrated impressive results in reducing chemical

run-off. When sprayed directly onto weeds it can kill

them off even when fertilizers are added afterward.

Instead of spraying thousands upon thousands

of individual fields of crop seedlings, a Monsanto

spraying system only needs to spray three or four

specific areas, leaving the rest untouched.

But it’s not your typical spraying system. It utilizes a

drone that flies above the fields with small devices that

do the actual spraying.

As it flies, drones collect information such as soil

moisture levels and other factors and the exact area

where the spraying is needed. It then transmits images

of those areas back to the control station to show the

spraying location.

From there, a determination can be made whether to

spray or not. If yes, the technology determines the air

distance needed for accurate spraying.

The whole process takes seconds, and afterward,

farmers can examine the results to better understand

how to boost crop growth.

Artificial Intelligence and IoT Increasing

Agricultural Productivity

AI and the Internet of Things (IoT) have a significant

impact on agricultural productivity.

According to an article published by

Tech Target

( https://www.techtarget.com/searchenterpriseai/ feature/Agricultural-AI-yields-better-crops- through-data-analytics )

, AI is making its way into

agriculture, with applications including autonomous

tractors that can take over many of the tasks currently

performed by farmers.

With this technology, farmers will make better

decisions about soil health and crop yield while saving

time and money.

With AI integrated into equipment such as tractors,

farmers have access to information about their fields.

They can use this data immediately for making

decisions about fertilizer application rates or irrigation

schedules based on weather conditions like rainfalls

or heat waves that affect plant growth rates differently

depending on when they occur during growth periods.

This efficiency helps farmers produce more crops per

acre while reducing costs associated with manual

labour for methods like plowing fields manually versus

automated machinery to monitor soil moisture and

prevent overwatering crops.

Other AI uses include:

Crop Health Monitoring

—a crop health monitor

is used to detect diseases or pests and alert

the farmer to take action. This system can help

farmers save time, money, and resources by

notifying them of problems before they become

too severe;

Crop and Soil Analysis

—AI systems help analyze

crop growth patterns about environmental factors

such as weather, and soil conditions, which may

lead to a better understanding of how certain

crops grow under different conditions worldwide.

With regards to Irrigation and Water Management,

there are several ways AI is used in agriculture for

irrigation purposes.

1)

Using sensors attached to pipes that send data

directly into cloud platforms where machine

learning algorithms are applied;

2)

Using drones equipped with cameras

capturing images from above ground level

plus other information such as soil temperature

measurements taken at regular intervals from

sensors planted beneath the ground. This

information is then used as training data for

platforms where machine learning and AI

algorithms operate.

Artificial Intelligence is used to increase productivity,

reduce costs, and improve the quality of agricultural

products.

As noted by the applications discussed, this

technology is already making a difference in the lives

of farmers around the world.

It will be interesting to see how this area continues

to develop over time with innovations like drones,

robotics, and even autonomous vehicles.

|

pag