How does Automated Farming work | A guide for smart farmers
The process of farming development created a turning point for humans. Man's ability to engineer the environment to produce enough food to sustain massive population growth was the first major change in the relationship between fully modern humans and the environment. The advent of agriculture led to further advancements, including growing crops, cooking, self-driving cars, and more. Agriculture has been with humans for many years, but now we are living at its turning point. According to the forecasts that have been made, the production of farming products will also increase with the increase in population. The pressure on the farming industry to produce more crops puts more pressure on the health of the planet.
New technological developments in modern agriculture, from robotics and farming drones to computer vision software, have completely transformed modern agriculture. Farmers now have access to Automated farming tools that help them meet the demands of the world's ever-increasing population. In this blog, we decided to talk about Automated farming, its advantages, and challenges completely.
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Why is Automated Farming important?
Few industries in modern society face the challenges seen in the farming sector. Many external forces wreak havoc on the farm business, and all of them are beyond the control of the business owner. Weather, drought, pests, and diseases permanently damage the farming industry. They increase the standard risks that businesses face and put a lot of pressure on thin profit margins. As you progress through this, the list of challenges grows. If we imagine a farmer who has planted a certain number of seeds, he must also produce a number of products for his business to be viable. In the next step, the method of becoming more efficient and producing higher yields on the land is considered. That is why farming automation has become important. Answers to questions such as how to increase your yield, how to harvest more, and how to reduce waste vary according to the type of farming.
What is Automated Farming?
Automated farming, which is usually associated with smart agriculture, uses various technological devices to improve Automated farming operations and the crop or livestock production cycle and make farms more efficient. Most farming technology companies are now working on robotics innovations to develop drone operations, self-driving tractors, robotic harvesters, irrigation robots, and automated seeding. These technologies are indeed new, but the farming sector is witnessing an increase in the number of traditional farming companies that use farm automation in their processes.
How does Automated Farming work?
Automated farming is not only related to robots that can plant seeds and harvest crops; these technologies include automated planting, harvesting, and soil management systems, as well as drones that monitor crops and provide data to farmers. They give. Automated agriculture includes advanced technologies such as robotics, sensor technology, satellite data, and mobile applications.
This type of farming uses less water because intelligent monitoring capabilities make it possible to know exactly when enough water has been delivered to a particular plant or field and the supply is cut off. Based on the same issue, a lower amount of drop killer will be used because no product is wasted for plants that do not grow well. Automated farming systems usually work on a 3-step mechanism:
Sensors and cameras monitor the products and detect any kind of problem
The software uses this data to make recommendations on the best way to manage the product
These recommendations are converted into actions by the machines themselves.
What technologies does Automated Farming use?
The main goal of farming technology companies is to implement smart technologies to cover daily tasks. Some of the most famous technologies implemented in farms are:
Harvest Automation
Fruit and vegetable harvesting has often been challenging for farming automation. Harvesting robots should handle crops gently to avoid bruising and damage.
Autonomous tractors
Manufacturers can remotely control self-driving tractors or pre-program them to become autonomous.
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Seeding and Weeding
Robotics designed for seeding and weeding can target specific crop areas. In seeding, they can reduce the day-to-day work of farming, while weeding robotics can reduce the use of herbicides by up to 90% with computer vision.
Drone
Farming drones can remotely monitor conditions and apply fertilizers, pesticides, and other treatments. Infrared images and analysis can quickly identify problem areas and help farmers spot problems early.
Guidance and Steering Technologies
The core technology enabling driverless functionality for tractors, harvesters and other farm machinery is GPS guidance systems. GPS antennae and gyroscopic sensors feed location data to onboard computers connected to the steering axles and systems. This allows:
Autonomous steering to follow programmed routes through fields with extreme precision.
Planting/spraying/harvesting in perfectly straight lines to maximize efficiency.
Avoiding overlapping treatment areas or accidentally missing sections.
Reduced driver fatigue, distraction and human error accidents.
These improvements in navigation precision, efficiency and safety underlie most autonomous field equipment.
Sensors and Data Collection in Automated Farming Equipment
A range of nimble ground and aerial robots outfitted with different sensors produce valuable crop data:
- Aerial drones using visual, hyperspectral and thermal cameras identify irrigation needs, diseases, yield rates and other crop health clues throughout the season by scanning vast acreage from the sky.
- Ground robots equipped with probes to test soil chemistry, moisture sensors, and cameras create mapped field data models, informing irrigation, fertilizer and pesticide applications tailored to micro-conditions.
- Passive monitoring systems track indicators like frost risk, wind damage, humidity, and equipment operations.
- Cloud-based data management platforms aggregate, analyze and act on insights gathered autonomously in the field.
Robotic Harvesting Machines
For highly repetitive tasks like picking fruits and nuts, autonomous harvesting robots are gaining adoption. Vision systems, mapping, and robotic arms allow these machines to:
- Precisely navigate rows and trellises in orchards and vineyards.
- Identify ripe produce ready for picking via onboard cameras and sensors.
- Carefully grip and detach fruit with robotic limbs without bruising or damaging plants.
- Work around the clock in all weather without concerns of fatigue or productivity.
Freed from the limitations of manual harvesting, smart robotic harvesters boost yield rates and profit.
Advantages of Automated Farming
Automated farming addresses important issues such as global population growth, farm labor shortages, and changing consumer preferences. The advantages of automating traditional farming processes are many, but in this section, we want to focus on the most important advantages:
Consumer benefit
Consumer preferences towards organic and sustainable products are changing. With the help of Automated farming, products will reach consumers faster, fresher, and more sustainable. Increasing productivity from automation increases efficiency and production rate and thus reduces consumer costs.
Labor productivity
Labor constitutes more than 50% of the costs of growing farms; half of the farmers say that the lack of labor affects them, that's why most of them go to low-labor products. However, there is vast potential for machine learning to harvest. Routine tasks can be automated with robotic technology, reducing labor costs in the farming industry.
Read more: The impact of Machine learning in agriculture
Reduced Environmental Footprint
Automated farming can make the farming process more profitable and sustainable at the same time. By implementing precision agriculture techniques, farmers can selectively reduce their environmental footprint through pesticides and fertilizers and reduce chemicals in the soil and surrounding waterways. Also, automated systems can greatly help farmers save energy and water and reduce environmental impacts.
Boosts Efficiency
Automated farming equipment like GPS-guided tractors and robotic harvesters work with optimized precision unmatched by humans.
Provides 24/7 Reliability
Farm robots continue tasks reliably regardless of weather, fatigue, light conditions or other variables that restrict human work.
Generates Valuable Data
Onboard sensors in automated farming equipment collect vast data to reveal insights and inform enhanced practices.
Enhances Profitability
Although automated farming equipment requires upfront investment, reducing long-term labor costs improves overall farm profit margins. Driven by these advantages, farms of all sizes are adopting smart machines tailored to their needs and crops. 
Why aren't farmers adopting Automated Farming faster?
Despite the many benefits of automated machines, why aren't more farmers looking to robots to help them and make life easier? Well, there are several reasons why farming processes have not been automated before:
First of all, it should be said that automatic machines are a little more complicated than an old tractor, and this requires experts to teach farmers how to use machines. Constant maintenance also requires a specialist, something that a farmer or some wrenches and grease are unlikely to fix.
Second, most machines are specialized because they are designed to do only one task, but humans are a little more adaptable. For example, you cannot use an automatic tomato picker to pick strawberries. This means that farmers have to invest more money to buy a large number of specialized automatic farming machines.
The third issue is the cost. Compared to traditional farming equipment, new automatic machines are more expensive.
Challenges of Automated Farming
Of course, it must be said that there are currently challenges to overcome in this field. High costs for adopting robotic technologies can be a big barrier for farmers to enter, especially in developing countries. Technical problems and equipment failure can also cause high costs for the repair of this specialized equipment. Farmers must combine their knowledge and experience with these new technologies to take full advantage of farm automation.
Ethical Considerations and Sustainability in Automated Farming Systems
The adoption of automated farming systems technology raises important ethical considerations related to environmental sustainability, food security, and social responsibility. While these technologies offer potential benefits in terms of resource efficiency and productivity, their impact on ecosystems, biodiversity, and rural communities must be carefully evaluated.
One key ethical concern in automated farming systems is the potential for increased monoculture cultivation and the associated risks of biodiversity loss, soil degradation, and vulnerability to pests and diseases. Automated farming systems practices should be designed and implemented in a way that promotes agricultural diversity, soil health, and ecosystem resilience. Additionally, the socioeconomic impacts of automated farming systems on rural communities and the agricultural workforce must be considered. Strategies for reskilling and job transitions may be necessary to mitigate potential job displacement and ensure that the benefits of automated farming] are distributed equitably across society.
Regulatory Frameworks and Policies for Automated Farming Systems
The rapid development and adoption of automated farming systems technology have highlighted the need for appropriate regulatory frameworks and policies to ensure responsible and sustainable implementation. Government agencies and policymakers play a crucial role in establishing guidelines and standards for the use of these technologies.
Regulations may address issues such as data privacy and security, equipment safety standards, environmental impact assessments, and ethical guidelines for the development and deployment of automated farming technologies. Additionally, policies may be needed to incentivize the adoption of sustainable and responsible practices in automated farming systems.
Conclusion
We are indeed in the early stages of automated farming, but when we look to the future, it is clear that automation will play an important role in the farming industry. With the help of technological advances, the farming process becomes more complex every year, and what was more advanced a few years ago will soon become standard and affordable. In addition to being useful for farmers, this work is also good for the environment. In addition to increasing productivity and reducing costs, automated farming has the potential to make agriculture a safer and more sustainable industry. The human element is always important for conflict management, but automated farming is essential for human survival.