An agricultural robot or agribot is a robot

An agricultural robot or agribot is a robot deployed for agricultural purposes. The main area of application of robots in agriculture is at the harvesting stage. Fruit picking robots, driverless tractor / sprayer, and sheep shearing robots are designed to replace human labour. The agricultural industry is behind other complementary industries in using robots because the sort of jobs involved in agriculture are not straightforward, and many repetitive tasks are not exactly the same every time. In most cases, a lot of factors have to be considered (e. g. , the size and colour 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 milking, washing and castrating. • AGRICULTURAL ROBOT •

Agricultural Robot » Agricultural robots are the fastest growing technology developed to perform various complex tasks that are difficult for humans to achieve. Recent news claims that the Japanese government has taken an initiative to use robotic operators in lands swamped by March 2011 tsunami. This “Dream project” was planned to involve unmanned tractors working in the farm on the disaster site. The robotic farmers are capable of cultivating vegetables, fruits, soybeans, wheat and rice, which are then packed in boxes and shipped across the country by this robotic technology. This process is accompanied by recycling of carbon dioxide using machinery in an attempt to reduce the use of fertilizers.

Images of an Agricultural Robots

Conclusions » Research efforts are now beginning to invest more in the development of multi-robot vehicles as platforms for a robot farming system. These vehicles include an electronic robot vehicle that can provide crop information using sensors, and two-robot tractors capable of performing various implement functions. Application of inexpensive navigation sensors to the robot farming system makes the system economically adaptable with the environment. With the development of robot farming system, food production can be increased considerably and economically.

What does the Argicultural Robot do? What Human Function Or Task Does The Robot Perform like Weeding, Planting, Fertilizing, Plowing & Picking. Is the robotic end effector multi-functional? Most agricultural robots are multifunctional They can perform many tasks, such as planting, picking, milking animals, etc. Agricultural robots are taught by sensors They use these sensors by marking spots that need to be planted and memorizing them. Where are these robots used? What is its work envelope? Agricultural robots are used on farms, plantations, etc. Its work envelope is 100 by 100 meters Advantages v. Disadvantages They cause less damage to the environment They protect workers from the harmful effects of chemicals

History of an Agricultural Robot: ► Early Civilization Tools During the Stone Age (2, 000 -3500 BCE), ancient peoples used simple tools such as spears, nets and various other traps to catch their prey. [2] Mesopotamians invented the wooden plow around 3000 BCE (Before Common Era), and by 2800 BCE, they had learned how to make bronze tools. ► The In-Between Years (2500 BCE-1750 AD) The use of animals has been prominent in agriculture. Archeologists believe that dogs were the first animals to be domesticated. Dogs helped early peoples by hunting and also kept rats and other rodents from eating the crops. [2] The use of animals in farming and the continued use of tools increased the size of many farms. This allowed farmers to cultivate more land. The caschrom was invented during the middle ages to till the land. By pushing the foot peg into the ground and pulling the handle backwards, a farmer could tear up the soil and flip the dirt to either side. [5]

History of an Agricultural Robot: Agricultural Revolution The Agricultural Revolution lasted from about 1750 -1900 when farming in America changed drastically. The main cause of the Agricultural Revolution was the introduction of machines. A wellknown machine introduced during this time was Eli Whitney’s cotton gin, one of the first machines used in agriculture. Eli Whitney, born in Massachusetts, patented his cotton gin on March 14, 1794. This machine was able to quickly separate cottonseed from cotton fibers, creating up to fifty pounds of cleaned cotton a day, the equivalent of hundreds of man-hours. As the first major machine of the agricultural revolution, the cotton gin led the way to our modern agricultural machines. The system farmers used to plant crops evolved greatly during this time period. In the early 1800 s, people in Norfolk County, England [created the Norfolk Crop Rotation System. This system works by using four main fields and planting different crops in each field. Each year, the cycle rotates, allowing the nutrients in the soil to replenish. [9] Another major change that occurred during the Agricultural Revolution was the creation of the United States Department of Agriculture, or the USDA. On May 15, 1862, President Lincoln created the USDA to improve agricultural practices and standards throughout the country. At first, the USDA worked only to increase productivity on farms, but starting in the 1880 s, work was also done to improve the quality and health standards of these farms. The research done by the USDA today helps to create robots and other technological improvements for American farms.

History of an Agricultural Robot: Nineteenth and Twentieth Centuries The nineteenth and twentieth centuries, AKA the eighteen and nineteen hundreds, was a very busy time for agricultural development. During this time period, some of our modern agricultural machines, such as the lawnmower and the tractor, were invented and put to use worldwide. John Deere is often considered to be synonymous with nineteenth century agriculture, mostly because you will see his company’s logo and equipment, first created in the 1800’s, in every farm supply store in the US. John Deere invented the first steel plow in 1837, testing it near Grand Detour, Illinois. He built this steel plow to solve the problems people were having with the mid-western soil sticking to the teeth of plows designed for the lighter New England soil. The first Deere, Tate & Gould factory was built in 1848 in Moline, Illinois, where they could take advantage of the waterpower and transportation of the Mississippi River. In 1918, the company, which became Deere and Company in 1868, began making tractors. These machines have grown to become our modern agricultural robots.

Who is the inventor of an Agricultural Robot? In the early 1830 s, spurred on by his hatred of sweaty field work, Cyrus Mc. Cormick took an idea his father had been working on at the family farm in Virginia and produced a mechanical reaper. Others devised similar machines. Despite initial scepticism, farmers eventually bought them in droves. With one person riding the horse that pulled the reaper, and another raking the cut stalks off the back, the machines could harvest as much grain in a day as a dozen men breaking their backs with reaping hooks. Mechanical reapers became even more efficient when adapted to bale the stalks into sheaves, too. Development continued: today a driver in the air-conditioned cabin of a combine harvester may be guided by satellites as he cuts, threshes and pours clean grain into a fleet of accompanying trailers. One machine, the New Holland CR 9090, holds the record after harvesting a colossal 551 tonnes of wheat in just eight hours from a farm in Britain in 2008. Given that such machines cost around $580, 000, agricultural automation must make economic sense—because farmers don't spend money on frivolities.

Latest Agricultural Robot The HV-100 is programmed to identify which size pot to look for, using a 3 D Laser Interferometry Detection and Ranging (LIDAR) sensor. It can lift a payload of 22 lb (10 kg) with high placement accuracy, performing up to 200 moves per hour. The machine requires only minimal training and setup, features a quick swap rechargeable battery, is designed to work on rough terrain and operates in all weather and lighting conditions, 24 hours a day. If a human crosses its path, it will immediately stop to avoid a collision. Harvest Automation is selling the HV-100 for $30, 000. It enables growers to create a sustainable workforce of robots, working safely alongside people to increase efficiency, reliability and plant quality. The agriculture industry is facing unprecedented labour volatility and tighter federal regulations on migrant workers. Harvest’s robots can perform as much manual labour as required by each grower, creating more capacity for human workers to focus on other tasks. The robots can also increase plant quality by optimising placement in the fields and reducing non-labour production costs including the use of water, pesticides, herbicides and fertilizers. So far, around 10 companies in the U. S. have purchased fleets of HV 100 s. From early 2014, Harvest plans to begin selling in Europe, where the potted plant market is twice as big as in America. Future capabilities of these robots may include plant maintenance, pruning leaves and collecting fruit. These machines could appear in significant numbers by 2016.

HV-100 The Harvest Automation HV-100 (it is nicknamed “Harvey”) is a plant container moving robot capable of handling all of the plant spacing, consolidation and collection needs in a Nursery or Greenhouse operation. This robot was designed by the American company Harvest Automation, Inc. (it is a robotics startup founded by several former i. Robot employees). HV-100 is targeted at the floriculture industry and is designed to move potted plants on nursery container farms, an application currently done by hand. The plants are first planted in containers (pots) that are then evenly spaced on large fields. As the plants grow they are spaced further apart to give each plant more room to spread out. Later, as the plants are sold, leaving holes in the spaced pattern, they are consolidated into a tighter area. The mobile robots that do this task are completely autonomous and able to figure out where the plants are and where they should be moved to. They carry one plant at a time, less than the 2 or 4 that humans carry, but the robots don’t need to take breaks. The robots are also designed to be safe around humans, which allows a human laborer to be on the field with the robots to help them do their job.