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Agricultural Robots Not Only Under the Sun, but Also Under the Moon!

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Agricultural Robots Not Only Under the Sun, but Also Under the Moon! Start moving from Hokkaido, Agricultural Robots Not only under the sun, but also under the moon! Unmanned Agricultural Robots can perform agricultural labor. While people sleep, land plow and crop harvest can be carried out. Japanese Agriculture, the Young People's This is a serious Average Age of Farmers state for 65.8 Choice. 61.1 63.2 agriculture! 59.1 Agriculture supports Japan's food, and protects the land and the environment. Although it's an important industry, the number of farmers keeps decreasing; there's an aging problem with farmers having an average age of 66 years old. Agriculture is a heavy 4.82 M 4.14 M 3.89 M labor, susceptible to weather factors, and learning agricultural technology takes a long 3.35 M 2.60 M time. Affected by this impression, leadership shortage is a serious issue. To solve this problem, "Agricultural Robots" is one of the key technologies. 1990 1995 2000 2005 2010 Number of Farmers Nationwide Ministry of Agriculture statistics (2010 survey) Hokkaido was First! Position measurement sensor (GPS) Computer Successful Operation of an Unmanned Tractor In modern agriculture, tractors and other agricultural machinery are essential. The Laboratory of Vehicle Robotics (VeBots) of Hokkaido University School of Attitude measurement sensor (IMU) Agriculture has succeeded conducting researches on unmanned tractors and A tractor equipped developing new technologies. Sensors are installed on a tractor, and its with sensors travels position is measured by satellite (GPS). A computer commands its in the farmland! movement, replacing manual operation and thus giving birth to robot tractors. By Supporting Farmers izing lowing til p r e e icid sp f st ra e y for 1 year, these Farming p i n g Operations are Possible eedin w g h a r v A Robot Tractor not only moves in the fields accurately, e s t but also can be programmed to complete all kinds of i n farming tasks. By entrusting the field labor to the Robot g g Tractor, farmers can focus into product development, n i market research and other important work. w s o Research Faculty of Agriculture Laboratory of Vehicle Robotics Start moving from Hokkaido, Agricultural Robots Power up! Using multiple Tractors for " Labor Cooperation" Satellite Positioning and Wireless One farmer operating a single Robot Tractor is not really efficient. Communications are the Basis of Therefore, "VeBots" laboratory has developed a management system for simultaneous operation of multiple Robot Tractors by using a wireless Agricultural Robots communication system. This "labor cooperation" is close to practical use. The Quasi-Zenith Satellite System "Michibiki" and other high-precision GPS satellite positioning technologies are vital for agricultural robots . Moreover, in order to monitor the productivity unmanned work of multiple robots from a remote control room, geospatial information and wireless (plowing) improvement is linked manned information and communication technologies are very important. (sowing) to cost reduction Robot Control Room Quasi-Zenith Satellite System "Michibiki" Example of Labor Cooperation Remote Sensing Remote Sensing (agricultural vehicles traveling) (ground sensor) Smaller Tractors are Environmentally Friendly Tractor size can improve operational efficiency, but it affects the crop growth due to Labor Record soil compaction. By using multiple small robot tractors, the "labor cooperation" (Agricultural machinery automatic record) scheme is a good prospect. Also, by sending information from a computer, it's possible to adjust the amount of fertilizer, harvest only mature crops, and perform other tasks concerning the environment; which is one of the goals of precision agriculture. Ready, Set, Go! Futuristic robot concept for ultra-precision farming work But it's not a race, it's cooperation. 1 person can manage multiple tractors thanks to agricultural robotics . By using Labor Cooperation, efficiency improves significantly. It has shown a good performance in wide agricultural lands. Research Faculty of Agriculture Laboratory of Vehicle Robotics Start moving from Hokkaido, Agricultural Robots " Big Data" to Support Farmers now and in the Future More and The reason behind the good flavor of vegetables and rice is an adequate agricultural environment, supported by the joint efforts of farmers and people related to agriculture . Accumulation of Big Data takes place by gathering the know-how from every point of view more concerning the "Hokkaido Agriculture", cultivated both naturally and by humans. By using the appropriate data it's possible to support daily farm labor, and help Japanese Agriculture by carrying out a variety of researches about Agricultural Information. delicious Tractor Geographic Experienced Labor food! Farmers information information Cultivation (Weather, cultivation Records (Soil, growth state, etc.) environment, etc.) But, can it really Data Analysis ・ Know-How abstraction become Accumulation of Big Data Smart Useful for Japanese Agriculture Agriculture? Smart Agriculture aims to help Japanese Agriculture Information Data by combining the know-how collection utilization of experienced farmers with agricultural robots. Achieve Precision Agriculture with Artificial Satellites + UAV With the gradual expansion of farming lands and paddy fields, soil and moisture states change, showing a discrepancy for the growth of crops. Thus, the concept of Precision Agriculture has got the world's attention. Artificial Satellites and UAV (Unmanned Aerial Vehicles) are combined to obtain precise large-scale agricultural information, and to adapt the crop growth to the environment. Fertilizers and pesticides are not wasted, creating a link to safe agriculture. A helicopter Future Trends of Japanese performs the remote sensing Unmanned Agriculture: towards Use of Big Tractor Data in Labor Agricultural "Smart Agriculture" Cooperation Labor Since 80 percent of the agricultural labor accounts for tractor operations, the Laboratory of Vehicle Robotics "VeBots" focuses in the research of unmanned Robot Tractors, but it's also engaged in agricultural remote sensing and information Colors indicate the crops growth state technologies. The laboratory aims to achieve "Smart Agriculture" Smart as the goal for the future of Japanese Agriculture, through Agriculture collaborative efforts of farmers and related personnel. Through this research, we are hoping to attract attention towards agriculture, and involve young people in agricultural work. Research Faculty of Agriculture Laboratory of Vehicle Robotics .
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