PUBLISHER: Stratistics Market Research Consulting | PRODUCT CODE: 1371903
PUBLISHER: Stratistics Market Research Consulting | PRODUCT CODE: 1371903
According to Stratistics MRC, the Global Agricultural Products Processing Robot Market is accounted for $13.5 billion in 2023 and is expected to reach $69.2 billion by 2030 growing at a CAGR of 26.3% during the forecast period. A group of robots known as "agricultural products processing robots" are created and deployed at various points throughout the supply chain for agricultural products to automate work connected to harvesting, sorting, grading, packing, and processing of agricultural products. These robots have sensors, cameras, and automation technology installed in them so they can work quickly and precisely. They are more common in the agricultural sector as a result of their capacity to boost production, cut labour expenses, and improve the general effectiveness of agricultural operations.
According to World Bank Data Agricultural employment has declined by 15% in the last decade around the globe. Furthermore, the agricultural industry in the United States and the United Kingdom, among other countries, depend on laborers, and a similar trend is seen across other developed countries as well.
Without the need for breaks or rest, robots can work rapidly and continuously. As a result, processing jobs take less overall labour time and no longer require shift rotations. Sorting, grading, and packaging are just a few of the physically taxing and repetitious duties involved in agricultural processing. Robots that process agricultural goods can assist cover the labour gap in areas with labour shortages by taking on duties that would otherwise require a bigger staff, especially during the busiest harvesting times. They can be programmed and customized to perform a variety of jobs without considerable training in instances where agricultural goods processing duties call for specific knowledge or training, allowing for more flexibility in workforce management.
Robots used to process agricultural goods can be adopted in agricultural processing facilities, but their high starting costs may be a major impediment. These expenses cover a range of buying, setting up, and maintaining robotic systems. The cost of purchasing the actual robotic hardware is the main expense. The initial cost may be significant, depending on the kind, size, and capabilities of the robot as well as any specific tools or attachments needed. Engineering, software development, and infrastructure alterations are all examples of customization. It can take a while to design and program robots to carry out certain agricultural activities and this work may call for the expertise of technicians or engineers, additional expenses could include the cost of developing proprietary software which hampers the market growth.
Static robots can reliably create high-quality agricultural products that adhere to particular size, weight, and quality criteria by removing human subjectivity and mistake. Robots that handle agricultural products may carry out repetitive activities rapidly and reliably, frequently more quickly than human labour. Throughput may improve and processing times may be shortened as a result of this greater efficiency. Sorting, grading, cutting, and packaging are all actions that robots are capable of performing precisely and accurately. By preventing waste and ensuring consistent product quality, this raises the market value of agricultural goods moreover many stationary agricultural processing robots can be quickly reprogrammed or altered to fit various crop varieties or processing needs.
Robots that process agricultural goods are governed by software licensing, which regulates how this software is used to operate and control these robots. Some agricultural robots are equipped with proprietary software that was created and is the property of the robot's maker. The terms and conditions of the license agreement govern how the software may be used, modified, and distributed, and users frequently need to pay licenses in order to utilize it. Open source software, which is freely available and modifiable by users, is sometimes used by agricultural robots. The license requirements, which frequently call for sharing any modifications or enhancements with the open source community, must still be followed by users of open source software, which increases the cost which impedes the market growth.
Because of lockdowns and other social segregation measures, the pandemic brought home how crucial it is to lessen agriculture's reliance on human labour. As a result, there was a rise in interest in and demand for agricultural processing robots that required little to no human involvement in operations like sorting, packaging, and quality checking. Similar to many other industries, the agricultural robot business saw supply chain disruptions. The pandemic brought home how crucial it is to uphold strong safety and hygiene standards in the food processing industry. Robots' intrinsic sterility made them popular in environments where contamination was a concern, leading to an increase in their usage.
The meat processing segment is estimated to have a lucrative growth, as these are utilized for the exact cutting and deboning of flesh from body parts. To ensure minimal waste and uniform portion sizes, these robots utilize vision systems and sensors to determine the shape and location of meat slices. Meat products are packaged using automated technologies to make sure they adhere to weight and quality requirements. Additionally, meat items can be sorted using robots according to characteristics like size, weight, and quality and the packaging of meat products into trays or containers is done by robots.
The stationary segment is anticipated to witness the highest CAGR growth during the forecast period, as fixed or static robots, commonly referred to as stationary agricultural robots, are robotic systems created to function in a fixed location inside the agricultural environment. These robots are usually used for specialized jobs or duties and are not mobile. For accurate and automatic irrigation control, fixed robots can be used. Herbicides and physical labour are not necessary as weeds may be precisely identified and removed from crop fields by stationary robots with cameras and robotic arms. In order to monitor environmental factors including temperature, humidity, soil moisture, and nutrient levels, these robots frequently have a variety of sensors and they can give farmers real-time information so they can make better decisions.
North America is projected to hold the largest market share during the forecast period owing to a growing labour scarcity, high labour expenses in the area, and high per-capita disposable income, the market in the region is driven by a higher adoption of innovative technologies. Some of the elements influencing the growth of the region include the growing government support for the use of agricultural robots, such as unmanned aerial vehicles, driverless tractors, and other agriculture systems to provide smart farming. Some market participants are making significant investments in the creation of affordable, highly effective robots in order to boost yields and lower farmers' costs which further boost the market growth.
Europe is projected to have the highest CAGR over the forecast period, owing to a number of variables and trends that are transforming the agricultural landscape throughout the continent are driving the enormous expansion and development of agriculture product processing robots in Europe. The deployment of processing robots is encouraged by the agricultural sector's embrace of digital transformation and sustainable farming methods in Europe. These robots are at the vanguard of the trend toward precision agriculture practices, which is gaining ground in Europe. Advanced sensors, GPS, and AI capabilities in agriculture robots allow for precise and targeted application of resources like water, fertilizer, and pesticides, resulting in increased productivity and sustainable agricultural methods which are driving the Europe market.
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