Agricultural robot

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Autonomous agricultural robot AgriRobot.jpg
Autonomous agricultural robot

An agricultural robot is a robot deployed for agricultural purposes. The main area of application of robots in agriculture today is at the harvesting stage. Emerging applications of robots or drones in agriculture include weed control, [1] [2] [3] cloud seeding, [4] planting seeds, harvesting, environmental monitoring and soil analysis. [5] [6] According to Verified Market Research, the agricultural robots market is expected to reach $11.58 billion by 2025. [7]

Contents

General

Fruit picking robots, driverless tractor / sprayers, and sheep shearing robots are designed to replace human labor. In most cases, a lot of factors have to be considered (e.g., the size and color of the fruit to be picked) before the commencement of a task. Robots can be used for other horticultural tasks such as pruning, weeding, spraying and monitoring. Robots can also be used in livestock applications (livestock robotics) such as automatic milking, washing and castrating. Robots like these have many benefits for the agricultural industry, including a higher quality of fresh produce, lower production costs, and a decreased need for manual labor. [8] They can also be used to automate manual tasks, such as weed or bracken spraying, where the use of tractors and other human-operated vehicles is too dangerous for the operators.[ citation needed ]

Designs

Fieldwork robot Amazone BoniRob Feldroboter-Entwicklungsprojekt.jpg
Fieldwork robot

The mechanical design consists of an end effector, manipulator, and gripper. Several factors must be considered in the design of the manipulator, including the task, economic efficiency, and required motions. The end effector influences the market value of the fruit and the gripper's design is based on the crop that is being harvested.[ citation needed ]

End effector

An end effector in an agricultural robot is the device found at the end of the robotic arm, used for various agricultural operations. Several different kinds of end effectors have been developed. In an agricultural operation involving grapes in Japan, end effectors are used for harvesting, berry-thinning, spraying, and bagging. Each was designed according to the nature of the task and the shape and size of the target fruit. For instance, the end effectors used for harvesting were designed to grasp, cut, and push the bunches of grapes.[ citation needed ]

Berry thinning is another operation performed on the grapes, and is used to enhance the market value of the grapes, increase the grapes' size, and facilitate the bunching process. For berry thinning, an end effector consists of an upper, middle, and lower part. The upper part has two plates and a rubber that can open and close. The two plates compress the grapes to cut off the rachis branches and extract the bunch of grapes. The middle part contains a plate of needles, a compression spring, and another plate which has holes spread across its surface. When the two plates compress, the needles punch holes through the grapes. Next, the lower part has a cutting device which can cut the bunch to standardize its length.

For spraying, the end effector consists of a spray nozzle that is attached to a manipulator. In practice, producers want to ensure that the chemical liquid is evenly distributed across the bunch. Thus, the design allows for an even distribution of the chemical by making the nozzle move at a constant speed while keeping distance from the target.

The final step in grape production is the bagging process. The bagging end effector is designed with a bag feeder and two mechanical fingers. In the bagging process, the bag feeder is composed of slits which continuously supply bags to the fingers in an up and down motion. While the bag is being fed to the fingers, two leaf springs that are located on the upper end of the bag hold the bag open. The bags are produced to contain the grapes in bunches. Once the bagging process is complete, the fingers open and release the bag. This shuts the leaf springs, which seal the bag and prevent it from opening again. [9]

Gripper

The gripper is a grasping device that is used for harvesting the target crop. Design of the gripper is based on simplicity, low cost, and effectiveness. Thus, the design usually consists of two mechanical fingers that are able to move in synchrony when performing their task. Specifics of the design depend on the task that is being performed. For example, in a procedure that required plants to be cut for harvesting, the gripper was equipped with a sharp blade.

Manipulator

The manipulator allows the gripper and end effector to navigate through their environment. The manipulator consists of four-bar parallel links that maintain the gripper's position and height. The manipulator also can utilize one, two, or three pneumatic actuators. Pneumatic actuators are motors which produce linear and rotary motion by converting compressed air into energy. The pneumatic actuator is the most effective actuator for agricultural robots because of its high power-weight ratio. The most cost efficient design for the manipulator is the single actuator configuration, yet this is the least flexible option. [10]

Development

The first development of robotics in agriculture can be dated as early as the 1920s, with research to incorporate automatic vehicle guidance into agriculture beginning to take shape. [11] This research led to the advancements between the 1950s and 60s of autonomous agricultural vehicles. [11] The concept was not perfect however, with the vehicles still needing a cable system to guide their path. [11] Robots in agriculture continued to develop as technologies in other sectors began to develop as well. It was not until the 1980s, following the development of the computer, that machine vision guidance became possible. [11]

Other developments over the years included the harvesting of oranges using a robot both in France and the US. [11] [12]

While robots have been incorporated in indoor industrial settings for decades, outdoor robots for the use of agriculture are considered more complex and difficult to develop.[ citation needed ] This is due to concerns over safety, but also over the complexity of picking crops subject to different environmental factors and unpredictability. [13]

Demand in the market

There are concerns over the amount of labor the agricultural sector needs. With an aging population, Japan is unable to meet the demands of the agricultural labor market. [13] Similarly, the United States currently depends on a large number of immigrant workers, but between the decrease in seasonal farmworkers and increased efforts to stop immigration by the government, they too are unable to meet the demand. [13] [14] Businesses are often forced to let crops rot due to an inability to pick them all by the end of the season. [13] Additionally, there are concerns over the growing population that will need to be fed over the next years. [13] [15] Because of this, there is a large desire to improve agricultural machinery to make it more cost efficient and viable for continued use. [13]

Unmanned tractor "Uralets-224" Unmanned tractor "Uralets-224" during the "Armiya 2020" exhibition (side view).jpg
Unmanned tractor "Uralets-224"

Much of the current research continues to work towards autonomous agricultural vehicles. This research is based on the advancements made in driver-assist systems and self-driving cars. [14]

While robots have already been incorporated in many areas of agricultural farm work, they are still largely missing in the harvest of various crops. This has started to change as companies begin to develop robots that complete more specific tasks on the farm. The biggest concern over robots harvesting crops comes from harvesting soft crops such as strawberries which can easily be damaged or missed entirely. [13] [14] Despite these concerns, progress in this area is being made. According to Gary Wishnatzki, the co-founder of Harvest Croo Robotics, one of their strawberry pickers currently being tested in Florida can "pick a 25-acre field in just three days and replace a crew of about 30 farm workers". [14] Similar progress is being made in harvesting apples, grapes, and other crops. [12] [14] [15] In the case of apple harvesting robots, current developments have been too slow to be commercially viable. Modern robots are able to harvest apples at a rate of one every five to ten seconds while the average human harvests at a rate of one per second. [16]

Another goal being set by agricultural companies involves the collection of data. [15] There are rising concerns over the growing population and the decreasing labor available to feed them. [13] [15] Data collection is being developed as a way to increase productivity on farms. [15] AgriData is currently developing new technology to do just this and help farmers better determine the best time to harvest their crops by scanning fruit trees. [15]

Applications

Robots have many fields of application in agriculture. Some examples and prototypes of robots include the Merlin Robot Milker, Rosphere,[ clarification needed ] Harvest Automation,[ clarification needed ] Orange Harvester, lettuce bot,[ clarification needed ] [17] and weeder.

According to David Gardner, chief executive of the Royal Agricultural Society of England, a robot can complete a complicated task if its repetitive and the robot is allowed to sit in a single place. Furthermore, robots that work on repetitive tasks (e.g. milking) fulfill their role to a consistent and particular standard. [18] [ better source needed ]

Benefits of many applications may include ecosystem/environmental benefits, and reduced costs for labor [20] (which may translate to reduced food costs), [21] which may be of special importance for food production in regions where there are labor shortages [21] (see above) or where labor is relatively expensive. Benefits also include the general advantages of automation such as in terms of productivity/availability [21] and increasing availability of human resources for other tasks or e.g. making work more engaging.

Examples and further applications

See also

Related Research Articles

<span class="mw-page-title-main">Agriculture</span> Cultivation of plants and animals to provide useful products

Agriculture encompasses crop and livestock production, aquaculture, fisheries, and forestry for food and non-food products. Agriculture was the key development in the rise of sedentary human civilization, whereby farming of domesticated species created food surpluses that enabled people to live in cities. While humans started gathering grains at least 105,000 years ago, nascent farmers only began planting them around 11,500 years ago. Sheep, goats, pigs, and cattle were domesticated around 10,000 years ago. Plants were independently cultivated in at least 11 regions of the world. In the 20th century, industrial agriculture based on large-scale monocultures came to dominate agricultural output.

<span class="mw-page-title-main">Crop rotation</span> Agricultural practice of changing crops

Crop rotation is the practice of growing a series of different types of crops in the same area across a sequence of growing seasons. This practice reduces the reliance of crops on one set of nutrients, pest and weed pressure, along with the probability of developing resistant pests and weeds.

<span class="mw-page-title-main">Industrial robot</span> Robot used in manufacturing

An industrial robot is a robot system used for manufacturing. Industrial robots are automated, programmable and capable of movement on three or more axes.

<span class="mw-page-title-main">Weed control</span> Botanical component of pest control for plants

Weed control is a type of pest control, which attempts to stop or reduce growth of weeds, especially noxious weeds, with the aim of reducing their competition with desired flora and fauna including domesticated plants and livestock, and in natural settings preventing non native species competing with native species.

<span class="mw-page-title-main">Hoe (tool)</span> Agricultural tool

A hoe is an ancient and versatile agricultural and horticultural hand tool used to shape soil, remove weeds, clear soil, and harvest root crops. Shaping the soil includes piling soil around the base of plants (hilling), digging narrow furrows (drills) and shallow trenches for planting seeds or bulbs. Weeding with a hoe includes agitating the surface of the soil or cutting foliage from roots, and clearing the soil of old roots and crop residues. Hoes for digging and moving soil are used to harvest root crops such as potatoes.

<span class="mw-page-title-main">Harvest</span> Process of gathering mature crops from fields

Harvesting is the process of collecting plants, animals, or fish as food, especially the process of gathering mature crops, and "the harvest" also refers to the collected crops. Reaping is the cutting of grain or pulses for harvest, typically using a scythe, sickle, or reaper. On smaller farms with minimal mechanization, harvesting is the most labor-intensive activity of the growing season. On large mechanized farms, harvesting uses farm machinery, such as the combine harvester. Automation has increased the efficiency of both the seeding and harvesting processes. Specialized harvesting equipment, using conveyor belts for gentle gripping and mass transport, replaces the manual task of removing each seedling by hand. The term "harvesting" in general usage may include immediate postharvest handling, including cleaning, sorting, packing, and cooling.

<span class="mw-page-title-main">Mechanised agriculture</span> Agriculture using powered machinery

Mechanised agriculture or agricultural mechanization is the use of machinery and equipment, ranging from simple and basic hand tools to more sophisticated, motorized equipment and machinery, to perform agricultural operations. In modern times, powered machinery has replaced many farm task formerly carried out by manual labour or by working animals such as oxen, horses and mules.

<span class="mw-page-title-main">Fruit picking</span>

Fruit picking or fruit harvesting is a seasonal activity that occurs during harvest time in areas with fruit growing wild or being farmed in orchards. Some farms market "You-Pick" for orchards, such as the tradition of Apple and Orange picking in North America, as a form of value-add agritourism.

<span class="mw-page-title-main">Sprayer</span> Agricultural machine used in farms

A sprayer is a device used to spray a liquid, where sprayers are commonly used for projection of water, weed killers, crop performance materials, pest maintenance chemicals, as well as manufacturing and production line ingredients. In agriculture, a sprayer is a piece of equipment that is used to apply herbicides, pesticides, and fertilizers on agricultural crops. Sprayers range in size from man-portable units to trailed sprayers that are connected to a tractor, to self-propelled units similar to tractors with boom mounts of 4–30 feet (1.2–9.1 m) up to 60–151 feet (18–46 m) in length depending on engineering design for tractor and land size.

<span class="mw-page-title-main">Banana plantation</span> Facility where bananas are grown

A banana plantation is a commercial agricultural facility found in tropical climates where bananas are grown.

<span class="mw-page-title-main">Robotics</span> Design, construction, use, and application of robots

Robotics is the interdisciplinary study and practice of the design, construction, operation, and use of robots.

<span class="mw-page-title-main">Agricultural machinery</span> Machinery used in farming or other agriculture

Agricultural machinery relates to the mechanical structures and devices used in farming or other agriculture. There are many types of such equipment, from hand tools and power tools to tractors and the countless kinds of farm implements that they tow or operate. Diverse arrays of equipment are used in both organic and nonorganic farming. Especially since the advent of mechanised agriculture, agricultural machinery is an indispensable part of how the world is fed. Agricultural machinery can be regarded as part of wider agricultural automation technologies, which includes the more advanced digital equipment and robotics. While agricultural robots have the potential to automate the three key steps involved in any agricultural operation, conventional motorized machinery is used principally to automate only the performing step where diagnosis and decision-making are conducted by humans based on observations and experience.

The following outline is provided as an overview of and topical guide to robotics:

<span class="mw-page-title-main">Driverless tractor</span> Autonomous farm vehicle

A driverless tractor is an autonomous farm vehicle that delivers a high tractive effort at slow speeds for the purposes of tillage and other agricultural tasks. It is considered driverless because it operates without the presence of a human inside the tractor itself. Like other unmanned ground vehicles, they are programmed to independently observe their position, decide speed, and avoid obstacles such as people, animals, or objects in the field while performing their task. The various driverless tractors are split into full autonomous technology and supervised autonomy. The idea of the driverless tractor appears as early as 1940, but the concept has significantly evolved in the last few years. The tractors use GPS and other wireless technologies to farm land without requiring a driver. They operate simply with the aid of a supervisor monitoring the progress at a control station or with a manned tractor in lead.

<span class="mw-page-title-main">FarmBot</span> Open-source precision agriculture CNC farming project

FarmBot is an open source precision agriculture CNC farming project consisting of a Cartesian coordinate robot farming machine, software and documentation including a farming data repository. The project aims to "Create an open and accessible technology aiding everyone to grow food and to grow food for everyone."

<span class="mw-page-title-main">Chintala Venkat Reddy</span> Indian organic farmer

Chintala Venkat Reddy is an organic farmer known for his soil and nutrient management techniques in farming. He is the first independent farmer in India to receive an international patent for his technique in soil swapping and soil fertility.

FarmWise Labs, Inc. is an American agricultural technology and robotics company, based in California. Its first product is an automated mechanical weeder that uses a combination of AI, computer vision and robotics to pull out weeds in vegetable fields without using chemicals. It won several industry innovation awards related to agriculture and sustainability.

The Hands Free Hectare (HFH) project was established in order to develop and showcase agricultural automation by completing the world's first fully autonomous cropping cycle. Based at Harper Adams University, Shropshire, UK, working in collaboration with Precision Decisions.

Solinftec is a global ag-tech company specializing in providing technologies for agribusiness. The company is headquartered in Araçatuba, São Paulo, Brazil.

References

  1. ↑ Cousins, David (24 February 2016). "Self-driving Ibex robot sprayer helps farmers safely tackle hills". Farmers Weekly. Retrieved 2016-03-22.
  2. ↑ Ackerman, Evan (12 November 2015). "Bosch's Giant Robot Can Punch Weeds to Death". IEEE.
  3. ↑ "Agriculture Robots at The University of Sydney". 2016. Archived from the original on 2020-05-09. Retrieved 2016-08-09.
  4. ↑ Craft, Andrew (1 March 2017). "Making it rain: Drones could be the future for cloud seeding". Fox News. Retrieved 24 May 2017.
  5. ↑ Anderson, Chris. "How Drones Came to Your Local Farm". MIT Technology Review. Archived from the original on 7 March 2017. Retrieved 24 May 2017.
  6. ↑ Mazur, Michal (July 20, 2016). "Six Ways Drones Are Revolutionizing Agriculture". MIT Technology Review. Retrieved 24 May 2017.
  7. ↑ Global Agriculture Robots Market Size By Type (Driverless Tractors, Automated Harvesting Machine, Others), By Application (Field Farming, Dairy Management, Indoor Farming, Others) By Geography Scope and Forecast (Report). Verified Market Research. September 2018. 3426.
  8. ↑ Belton, Padraig (2016-11-25). "In the future, will farming be fully automated?". BBC News. Retrieved 2016-11-28.
  9. ↑ Monta, M.; Kondo, N.; Shibano, Y. (21–27 May 1995). "Agricultural Robot in Grape Production System". Proceedings of 1995 IEEE International Conference on Robotics and Automation. IEEE International Conference on Robotics and Automation. Vol. 3. Nagoya: Institute of Electrical and Electronics Engineers. pp. 2504–2509. doi:10.1109/ROBOT.1995.525635. ISBN   0-7803-1965-6.
  10. ↑ Foglia, M. M.; Reina, G. (2006). "Agricultural robot for radicchio harvesting" (PDF). Journal of Field Robotics. 23 (6–7): 363–377. doi:10.1002/rob.20131. S2CID   31369744.
  11. 1 2 3 4 5 Yaghoubi, S.; Akbarzadeh, N. A.; Bazargani, S. S.; Bazargani, S. S.; Bamizan, M.; Asl, M. I. (2013). "Autonomous Robots for Agricultural Tasks and Farm Assignment and Future Trends in Agro Robots". International Journal of Mechanical & Mechatronics Engineering. 13 (3): 1–6. CiteSeerX   10.1.1.418.3615 .
  12. 1 2 Harrell, Roy (1987). "Economic Analysis of Robotic Citrus Harvesting in Florida". Transactions of the ASAE. 30 (2): 298–304. doi:10.13031/2013.31943.
  13. 1 2 3 4 5 6 7 8 Dorfman, Jason (December 12, 2009). "Fields of automation". The Economist. Retrieved 2018-05-29.
  14. 1 2 3 4 5 Daniels, Jeff (2018-03-08). "From strawberries to apples, a wave of agriculture robotics may ease the farm labor crunch". CNBC. Retrieved 2018-05-29.
  15. 1 2 3 4 5 6 Simon, Matt (May 31, 2017). "Robots Wielding Water Knives Are the Future of Farming". Wired. Retrieved 2018-05-29.
  16. ↑ Bogue, Robert (2016-01-01). "Robots poised to revolutionise agriculture". Industrial Robot. 43 (5): 450–456. doi:10.1108/IR-05-2016-0142. ISSN   0143-991X.
  17. ↑ Harvey, Fiona (9 January 2014). "Robot farmers are the future of agriculture, says government". The Guardian. Retrieved 30 October 2014.
  18. ↑ Jenkins, David (23 September 2013). "Agriculture shock: How robot farmers will take over our fields". Metro. Retrieved 30 October 2014.
  19. ↑ "Products". Harvest Automation. 2016. Retrieved 10 November 2014.
  20. 1 2 Papadopoulos, Loukia (21 October 2022). "This new farming robot uses lasers to kill 200,000 weeds per hour". interestingengineering.com. Retrieved 17 November 2022.
  21. 1 2 3 4 Paquette, Danielle. "Farmworkers vs robots: Will tomorrow fruit pickers be made of steel and tech?". Washington Post. Retrieved 5 December 2022.
  22. 1 2 "Verdant Robotics launches multi-action agricultural robot for 'superhuman farming'". Robotics & Automation News. 23 February 2022. Retrieved 17 November 2022.
  23. ↑ "Small Robot Company Tom, Dick, and Harry farm robots: The 200 Best Inventions of 2022". Time. Retrieved 17 November 2022.
  24. ↑ Shafiekhani, Ali; Kadam, Suhas; Fritschi, Felix B.; DeSouza, Guilherme N. (2017-01-23). "Vinobot and Vinoculer: Two Robotic Platforms for High-Throughput Field Phenotyping". Sensors. 17 (1): 214. Bibcode:2017Senso..17..214S. doi: 10.3390/s17010214 . PMC   5298785 . PMID   28124976.
  25. ↑ Ledford, Heidi (2017-01-26). "Plant biologists welcome their robot overlords". Nature. 541 (7638): 445–446. Bibcode:2017Natur.541..445L. doi: 10.1038/541445a . PMID   28128274.
  26. ↑ University of Missouri-Columbia (March 28, 2017). "Fighting world hunger: Robotics aid in the study of corn and drought tolerance". Phys.org. Retrieved 2017-11-26.
  27. ↑ "AgBot Multi-Function Robot Is Powered by the Sun". pcmag.com. Archived from the original on 31 March 2012. Retrieved 2 April 2018.
  28. ↑ Piquepaille, Roland (November 25, 2008). "A fully customizable home robot". ZDNet. Retrieved 2 April 2018.
  29. ↑
  30. ↑ "Harvest Automation Inc". www.harvestautomation.com. Retrieved 2 April 2018.
  31. ↑ Shieber, Jonathan (8 August 2018). "Your vegetables are going to be picked by robots sooner than you think". TechCrunch.
  32. ↑ "Introducing Root AI". 8 August 2018.
  33. ↑ "Robotic Harvesting".
  34. ↑ "Robotic Harvesters | Agrobot | Spain".
  35. ↑ "How small robots may kill the tractor and make farming efficient". Wired.
  36. ↑ "Autonomous seeder and planter projects".
  37. ↑ "ecoRobotix plans spot-spraying robot for weed control".
  38. ↑ "Blue River See & Spray Tech Reduces Herbicide Use By 90%". Archived from the original on 2019-03-22. Retrieved 2019-03-22.
  39. ↑ "How Blue River's technology could change agriculture forever". 5 August 2017.
  40. ↑ "Casmobot".
  41. ↑ "The Field Robot Event".
  42. ↑ "HortiBot - A Plant Nursing Robot".
  43. ↑ "See & Spray Agricultural Machines - Blue River Technology". See & Spray Agricultural Machines - Blue River Technology. Retrieved 2 April 2018.
  44. ↑ "Fields of automation". The Economist .
  45. ↑ "ROS Agriculture". An ecosystem to empower farmers with robotic tools.
  46. ↑ "Agricultural robot starts UK trials". The Engineer. 22 February 2016. Retrieved 2016-03-22.
  47. ↑ "FarmBot - Open-Source CNC Farming". farmbot.io. Retrieved 2 April 2018.
  48. ↑ "FarmBot DIY agriculture robot promises to usher in the future of farming". digitaltrends.com. 28 July 2016. Retrieved 2 April 2018.
  49. ↑ "Presentaron un vehículo agrícola que robotiza la aplicación de agroquímicos" (in Spanish). Retrieved 2018-06-07.
  50. ↑ "ACFR robots". Archived from the original on 2020-05-09. Retrieved 2016-08-09.
  51. ↑ "Agriculture Robots at The University of Sydney". Sydney.edu.au. 2016.
  52. ↑ "THORVALD – AUTONOMOUS MODULAR ROBOT DELIVERING AGRICULTURAL SERVICES" . Retrieved 6 September 2019.

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