SlideShare une entreprise Scribd logo
1  sur  28
AGRICULTURAL ROBOTICS
Presented by
Pradheepa.S
17304019
CONTENTS
 INTRODUCTION
 TYPES OF ROBOTS
Demeter
weed controller
robots used in forest
robot in horticulture
fruit picking robot
 FUTURE SCOPE
 ADVANTAGES
 DISADVANTAGES
 CONCLUSION
INTRODUCTION
The idea of applying robotics technology in agricultural is
very new. In agricultural, the opportunities for robot
enhanced productivity are immense and the robots are
appearing on farms in various guises and in increasing
numbers.
The robots performing in agricultural operations
autonomously such as spraying and mechanical weed
control, fruit picking, watching the farms day and night for
an effective report, allowing farmers to reduce the
environmental impact, increase precision and efficiency,
and manage individual plants in novel way.
WHY AGRICULTURAL ROBOTS ARE PREFFERED
We can except the robots to perform agricultural operations
autonomously such as spraying, fruit picking and allowing the
farmers to reduce the environment impact, increase precision
and efficiency.
TECHNIQUES INVOLVED IN AGRICULTURAL
ROBOTICS
Process like ploughing, seeding, fertilizing, harvesting and
spraying etc. require large amount of man power. Hence in order to
reduce this need save time and money, robots are essential.
DIFFERENCE BETWEEN THE CONVENTIONAL
AND AUTOMIZED TECHNIQUE
Conventional technique depends on the human power and human
not able to work in hazardous environment.
Robots can work non stop, human needs rest.
Robots can detect the presence of diseases, weeds, and other stress.
The lightweight of the robots do not compact the soil as larger
machinery does.
TYPES OF ROBOTS USED IN
AGRICULTURE
Demeter(used for harvesting).
Robot for weed control.
Forester robot.
Fruit picking robot.
DEMETER
Demeter is a robot that can cut crops it look like a normal
harvester, but can drive by itself without any human supervision.
Demeter has cameras on it that can detect the difference between
the crop that has been cut and crop that hasn't.
This information tells it where to drive, where to put its cutter
head, and when it has come to end of a crop row so it can turn
around.
The Demeter robot can also be drive by remote control or, Demeter
can be taught a path and then follow that path using its on board
sensor and computer control systems.
The Demeter system strives to provide three levels of automation
First, “a cruise control” feature, which will automatically steer, drive
and control the harvesting header, will be provided to harvest
operators.
Second, “drone” feature, will be provided, allowing one operator to
remotely control several harvesters.
Third, “a fully autonomous machine” will be developed that will
allow a harvester to completely harvest a afield without any human
supervision .
WEED CONTROLLER
A four-wheel-drive weed seeking robot was developed and the task of
weed removing device is to remove or destroy the weed.
Crops that are grown in rows can be weeded by running a hoe
between the crop rows.
An intelligent hoe uses vision systems to identify the rows of crops
and steer itself accurately between them, considerably reducing the
need for herbicides.
Weed identification is based on color photography. The equipped
robot helps production of weed maps identifying plants.
FOREST ROBOTS
It consists of two types, they are
Treebot
Forestor robot
TREEBOT :
A fearless mobile robot is helping scientists monitor environmental
change in the forests.
Treebot consists of combine networked sensors, a web camera, and a
wireless net link.
It is very important in the biology community to understand the
interaction between the atmosphere and the forest environment.
But 90% of all interaction between the environment and atmospheric
conditions happen high up in the forest canopy.
The treebot helps by being stealthy enough to travel through the
forest canopy along specially constructed cabling, night and day.
FORESTOR ROBOT:
This is the special type of robot used for cutting up of wood, tending
trees, and for harvesting pulp and hard wood and in the forest.
It employs a special jaws and axes for chopping the branch.
The forester robot with six legged moves in the forest.
ROBOTS IN HORICULTURE
Robot is used in lawns to cut the grass in lawns.
It can cut any lawn, regardless of its geometric shape.
In automatic mode, a fully charged robo-mower can typically mow a
lawn of 2500-3200 sq.ft., depending on the number of obstacles in
its path, slopes, height of grass, humidity ,etc.
It operates electrically on rechargeable batteries, mulching blades,
whisper quiet operation and without any pollution.
FRUIT PICKING ROBOT
The fruit picking robots need to pick ripe fruit without damaging
the branches or leaves of the tree.
The robots must be able to access all areas of he tree being
harvested.
The robot can distinguish between the fruit and leaves by using
video image capturing.
The pressure applied to the fruit is sufficient for removal from the
tree, but not enough to crush the fruit.
FUTURE SCOPE
Flying micro robot :
Scientist from the world are reverse engineering the
mechanics of insects as they design midget robots to scout battle-
fields, search for victims trapped in rubble, and record images in
agricultural fields. The micro robot consists of propeller by which it
can fly to heights these features include the ability to zero in and
the land precisely on a potato chip and the flap their wings to buzz
off with blazing speed.
ADVANTAGES
The robo does not get sick or tired and does not need time off.
it can be used in various fields like medicine, mining, and space
research.
The machine could easily work around trees, rocks, ponds and
other obstacles.
Small suburban fields could be worked almost as efficiently as
large tracts of land.
DISADVANTAGE
One of the key disadvantages of driverless machines for agriculture
is liability.
Robots could change the culture /emotional appeal of agriculture.
Energy issues costly.
CONCLUSION
In agriculture, the opportunities for robot-enhanced productivity
are immense – and the robots are appearing on farms in various
guises and in increasing numbers. The other problems associated
with autonomous farm equipment can probably be overcome with
technology.
One of the advantages of the smaller machines is that they may be
more acceptable to the non-farm community. The jobs in
agriculture are a drag, dangerous, require intelligence and quick,
though highly repetitive decisions hence robots can be rightly
substituted with human operator. The higher quality products can
be sensed by machines. Robots can improve the quality of our
lives but there are downsides.
References
 IEEE ROBOTICS &AUTOMATION SOCIETY, SUB COMMITTEE FOR ROBOTICS
AND AUTOMATION.
 ROBOTICS TECHNOLOGY AND AUTOMATION BY S R DEB.
 INDUSTRIAL ROBOTICS BY MIKELL P. GROOVER.
 EPSON MICRO FIYING ROBOT.
Agricultural Robotics

Contenu connexe

Tendances

Hortibot (Horticulture + Robot)
Hortibot (Horticulture + Robot)Hortibot (Horticulture + Robot)
Hortibot (Horticulture + Robot)
Faizol Haffiz
 

Tendances (20)

30092013115728 agricultural-robotics
30092013115728 agricultural-robotics30092013115728 agricultural-robotics
30092013115728 agricultural-robotics
 
Seminar on Agriculture Robots
Seminar on Agriculture Robots Seminar on Agriculture Robots
Seminar on Agriculture Robots
 
Agrobots
AgrobotsAgrobots
Agrobots
 
Robotics in agriculture kvg
Robotics in agriculture kvgRobotics in agriculture kvg
Robotics in agriculture kvg
 
AGRICULTURAL ROBOT FOR FUTURE FARMING
AGRICULTURAL ROBOT FOR FUTURE FARMINGAGRICULTURAL ROBOT FOR FUTURE FARMING
AGRICULTURAL ROBOT FOR FUTURE FARMING
 
Automation in agriculture
Automation in agricultureAutomation in agriculture
Automation in agriculture
 
Hortibot (Horticulture + Robot)
Hortibot (Horticulture + Robot)Hortibot (Horticulture + Robot)
Hortibot (Horticulture + Robot)
 
Agriculture Robot report
Agriculture Robot reportAgriculture Robot report
Agriculture Robot report
 
Agriculture Robot
Agriculture RobotAgriculture Robot
Agriculture Robot
 
Robotics in agriculture
Robotics in agriculture Robotics in agriculture
Robotics in agriculture
 
Artificial Intelligence in Agriculture
Artificial Intelligence in AgricultureArtificial Intelligence in Agriculture
Artificial Intelligence in Agriculture
 
Agricultural automation
Agricultural automationAgricultural automation
Agricultural automation
 
Advantage of drone sprayer
Advantage of drone sprayerAdvantage of drone sprayer
Advantage of drone sprayer
 
3 ai use cases in agriculture
3 ai use cases in agriculture3 ai use cases in agriculture
3 ai use cases in agriculture
 
Agriculturalrobot 131207085503-phpapp01
Agriculturalrobot 131207085503-phpapp01Agriculturalrobot 131207085503-phpapp01
Agriculturalrobot 131207085503-phpapp01
 
Artifical intelligence in agriculture
Artifical intelligence in agricultureArtifical intelligence in agriculture
Artifical intelligence in agriculture
 
Drone technology is Improving Agriculture Industry
Drone technology is Improving Agriculture IndustryDrone technology is Improving Agriculture Industry
Drone technology is Improving Agriculture Industry
 
Artificial Intelligence in Agriculture
Artificial Intelligence in AgricultureArtificial Intelligence in Agriculture
Artificial Intelligence in Agriculture
 
Robotics in Agriculture
Robotics in Agriculture Robotics in Agriculture
Robotics in Agriculture
 
Ai in farming
Ai in farmingAi in farming
Ai in farming
 

Similaire à Agricultural Robotics

Similaire à Agricultural Robotics (20)

Es case study
Es case studyEs case study
Es case study
 
Agri-Robots.pptx
Agri-Robots.pptxAgri-Robots.pptx
Agri-Robots.pptx
 
agribot rgit synopsis.docx
agribot rgit synopsis.docxagribot rgit synopsis.docx
agribot rgit synopsis.docx
 
Revolutionizing Agriculture with Robots.pptx
Revolutionizing Agriculture with Robots.pptxRevolutionizing Agriculture with Robots.pptx
Revolutionizing Agriculture with Robots.pptx
 
Design and Development of a Multifunctional Agrobot “RaithaMitra” for Efficie...
Design and Development of a Multifunctional Agrobot “RaithaMitra” for Efficie...Design and Development of a Multifunctional Agrobot “RaithaMitra” for Efficie...
Design and Development of a Multifunctional Agrobot “RaithaMitra” for Efficie...
 
Robotics in agriculture
Robotics in agricultureRobotics in agriculture
Robotics in agriculture
 
AUTONOMOUS AGRICULTURAL BOT
AUTONOMOUS AGRICULTURAL BOTAUTONOMOUS AGRICULTURAL BOT
AUTONOMOUS AGRICULTURAL BOT
 
Mobile Robot for Agriculture Farming
Mobile Robot for Agriculture FarmingMobile Robot for Agriculture Farming
Mobile Robot for Agriculture Farming
 
Km244 multipurpose agriculture robot
Km244 multipurpose agriculture robot Km244 multipurpose agriculture robot
Km244 multipurpose agriculture robot
 
ROBOT PERCEPTION FOR AGRICULTURE AND GOOD PRODUCTION1.1.pdf
ROBOT PERCEPTION FOR AGRICULTURE AND GOOD PRODUCTION1.1.pdfROBOT PERCEPTION FOR AGRICULTURE AND GOOD PRODUCTION1.1.pdf
ROBOT PERCEPTION FOR AGRICULTURE AND GOOD PRODUCTION1.1.pdf
 
Multipurpose Solar Powered Agribot
Multipurpose Solar Powered AgribotMultipurpose Solar Powered Agribot
Multipurpose Solar Powered Agribot
 
DOC-20221108-WA0106..pptx
DOC-20221108-WA0106..pptxDOC-20221108-WA0106..pptx
DOC-20221108-WA0106..pptx
 
Rana
RanaRana
Rana
 
Assistant 3.pptx
Assistant 3.pptxAssistant 3.pptx
Assistant 3.pptx
 
Nanorobotics
NanoroboticsNanorobotics
Nanorobotics
 
Drones for Livestock Management.
Drones for Livestock Management.Drones for Livestock Management.
Drones for Livestock Management.
 
IoT BASED AUTOMATED PESTICIDE SPRAYER FOR DWARF PLANTS
IoT BASED AUTOMATED PESTICIDE SPRAYER FOR DWARF PLANTSIoT BASED AUTOMATED PESTICIDE SPRAYER FOR DWARF PLANTS
IoT BASED AUTOMATED PESTICIDE SPRAYER FOR DWARF PLANTS
 
Drones for Livestock Management- Best Practices to Follow.
Drones for Livestock Management- Best Practices to Follow.Drones for Livestock Management- Best Practices to Follow.
Drones for Livestock Management- Best Practices to Follow.
 
Drones for Livestock Management- Best Practices to Follow.
Drones for Livestock Management- Best Practices to Follow.Drones for Livestock Management- Best Practices to Follow.
Drones for Livestock Management- Best Practices to Follow.
 
IRJET-Survey Paper on Agro-Bot Autonomous Robot
IRJET-Survey Paper on Agro-Bot Autonomous RobotIRJET-Survey Paper on Agro-Bot Autonomous Robot
IRJET-Survey Paper on Agro-Bot Autonomous Robot
 

Plus de Srinivas Vasamsetti

Plus de Srinivas Vasamsetti (20)

LiFi
LiFiLiFi
LiFi
 
Pill Camera
Pill CameraPill Camera
Pill Camera
 
Free space optical communication
Free space optical communicationFree space optical communication
Free space optical communication
 
Gi-Fi Technology
Gi-Fi TechnologyGi-Fi Technology
Gi-Fi Technology
 
Green communication
Green communicationGreen communication
Green communication
 
Humanoid Robot Sophia
Humanoid Robot SophiaHumanoid Robot Sophia
Humanoid Robot Sophia
 
Simputer
SimputerSimputer
Simputer
 
smart Home energy Management System
smart Home energy Management Systemsmart Home energy Management System
smart Home energy Management System
 
minimize solar array switching
minimize solar array switching minimize solar array switching
minimize solar array switching
 
Switchable directional antenna system for uwb
Switchable directional antenna system for uwbSwitchable directional antenna system for uwb
Switchable directional antenna system for uwb
 
RFID
RFIDRFID
RFID
 
Network on Chip
Network on ChipNetwork on Chip
Network on Chip
 
Finfet Technology
Finfet TechnologyFinfet Technology
Finfet Technology
 
Transparent electronics
Transparent electronicsTransparent electronics
Transparent electronics
 
Under Water wireless communication
Under Water wireless communicationUnder Water wireless communication
Under Water wireless communication
 
Optical Antenna
Optical AntennaOptical Antenna
Optical Antenna
 
Plastic electronics
Plastic electronicsPlastic electronics
Plastic electronics
 
Spintronics
SpintronicsSpintronics
Spintronics
 
Touchless Touch screen
Touchless Touch screenTouchless Touch screen
Touchless Touch screen
 
COGNITIVE RADIO
COGNITIVE RADIOCOGNITIVE RADIO
COGNITIVE RADIO
 

Dernier

Activity 01 - Artificial Culture (1).pdf
Activity 01 - Artificial Culture (1).pdfActivity 01 - Artificial Culture (1).pdf
Activity 01 - Artificial Culture (1).pdf
ciinovamais
 

Dernier (20)

Dyslexia AI Workshop for Slideshare.pptx
Dyslexia AI Workshop for Slideshare.pptxDyslexia AI Workshop for Slideshare.pptx
Dyslexia AI Workshop for Slideshare.pptx
 
Key note speaker Neum_Admir Softic_ENG.pdf
Key note speaker Neum_Admir Softic_ENG.pdfKey note speaker Neum_Admir Softic_ENG.pdf
Key note speaker Neum_Admir Softic_ENG.pdf
 
Unit-IV; Professional Sales Representative (PSR).pptx
Unit-IV; Professional Sales Representative (PSR).pptxUnit-IV; Professional Sales Representative (PSR).pptx
Unit-IV; Professional Sales Representative (PSR).pptx
 
Sociology 101 Demonstration of Learning Exhibit
Sociology 101 Demonstration of Learning ExhibitSociology 101 Demonstration of Learning Exhibit
Sociology 101 Demonstration of Learning Exhibit
 
Introduction to Nonprofit Accounting: The Basics
Introduction to Nonprofit Accounting: The BasicsIntroduction to Nonprofit Accounting: The Basics
Introduction to Nonprofit Accounting: The Basics
 
Explore beautiful and ugly buildings. Mathematics helps us create beautiful d...
Explore beautiful and ugly buildings. Mathematics helps us create beautiful d...Explore beautiful and ugly buildings. Mathematics helps us create beautiful d...
Explore beautiful and ugly buildings. Mathematics helps us create beautiful d...
 
This PowerPoint helps students to consider the concept of infinity.
This PowerPoint helps students to consider the concept of infinity.This PowerPoint helps students to consider the concept of infinity.
This PowerPoint helps students to consider the concept of infinity.
 
How to Create and Manage Wizard in Odoo 17
How to Create and Manage Wizard in Odoo 17How to Create and Manage Wizard in Odoo 17
How to Create and Manage Wizard in Odoo 17
 
HMCS Max Bernays Pre-Deployment Brief (May 2024).pptx
HMCS Max Bernays Pre-Deployment Brief (May 2024).pptxHMCS Max Bernays Pre-Deployment Brief (May 2024).pptx
HMCS Max Bernays Pre-Deployment Brief (May 2024).pptx
 
Mixin Classes in Odoo 17 How to Extend Models Using Mixin Classes
Mixin Classes in Odoo 17  How to Extend Models Using Mixin ClassesMixin Classes in Odoo 17  How to Extend Models Using Mixin Classes
Mixin Classes in Odoo 17 How to Extend Models Using Mixin Classes
 
Towards a code of practice for AI in AT.pptx
Towards a code of practice for AI in AT.pptxTowards a code of practice for AI in AT.pptx
Towards a code of practice for AI in AT.pptx
 
General Principles of Intellectual Property: Concepts of Intellectual Proper...
General Principles of Intellectual Property: Concepts of Intellectual  Proper...General Principles of Intellectual Property: Concepts of Intellectual  Proper...
General Principles of Intellectual Property: Concepts of Intellectual Proper...
 
2024-NATIONAL-LEARNING-CAMP-AND-OTHER.pptx
2024-NATIONAL-LEARNING-CAMP-AND-OTHER.pptx2024-NATIONAL-LEARNING-CAMP-AND-OTHER.pptx
2024-NATIONAL-LEARNING-CAMP-AND-OTHER.pptx
 
UGC NET Paper 1 Mathematical Reasoning & Aptitude.pdf
UGC NET Paper 1 Mathematical Reasoning & Aptitude.pdfUGC NET Paper 1 Mathematical Reasoning & Aptitude.pdf
UGC NET Paper 1 Mathematical Reasoning & Aptitude.pdf
 
Fostering Friendships - Enhancing Social Bonds in the Classroom
Fostering Friendships - Enhancing Social Bonds  in the ClassroomFostering Friendships - Enhancing Social Bonds  in the Classroom
Fostering Friendships - Enhancing Social Bonds in the Classroom
 
Unit-V; Pricing (Pharma Marketing Management).pptx
Unit-V; Pricing (Pharma Marketing Management).pptxUnit-V; Pricing (Pharma Marketing Management).pptx
Unit-V; Pricing (Pharma Marketing Management).pptx
 
Spatium Project Simulation student brief
Spatium Project Simulation student briefSpatium Project Simulation student brief
Spatium Project Simulation student brief
 
Activity 01 - Artificial Culture (1).pdf
Activity 01 - Artificial Culture (1).pdfActivity 01 - Artificial Culture (1).pdf
Activity 01 - Artificial Culture (1).pdf
 
Single or Multiple melodic lines structure
Single or Multiple melodic lines structureSingle or Multiple melodic lines structure
Single or Multiple melodic lines structure
 
ICT role in 21st century education and it's challenges.
ICT role in 21st century education and it's challenges.ICT role in 21st century education and it's challenges.
ICT role in 21st century education and it's challenges.
 

Agricultural Robotics

  • 2. CONTENTS  INTRODUCTION  TYPES OF ROBOTS Demeter weed controller robots used in forest robot in horticulture fruit picking robot  FUTURE SCOPE  ADVANTAGES  DISADVANTAGES  CONCLUSION
  • 3. INTRODUCTION The idea of applying robotics technology in agricultural is very new. In agricultural, the opportunities for robot enhanced productivity are immense and the robots are appearing on farms in various guises and in increasing numbers. The robots performing in agricultural operations autonomously such as spraying and mechanical weed control, fruit picking, watching the farms day and night for an effective report, allowing farmers to reduce the environmental impact, increase precision and efficiency, and manage individual plants in novel way.
  • 4. WHY AGRICULTURAL ROBOTS ARE PREFFERED We can except the robots to perform agricultural operations autonomously such as spraying, fruit picking and allowing the farmers to reduce the environment impact, increase precision and efficiency.
  • 5. TECHNIQUES INVOLVED IN AGRICULTURAL ROBOTICS Process like ploughing, seeding, fertilizing, harvesting and spraying etc. require large amount of man power. Hence in order to reduce this need save time and money, robots are essential.
  • 6. DIFFERENCE BETWEEN THE CONVENTIONAL AND AUTOMIZED TECHNIQUE Conventional technique depends on the human power and human not able to work in hazardous environment. Robots can work non stop, human needs rest. Robots can detect the presence of diseases, weeds, and other stress. The lightweight of the robots do not compact the soil as larger machinery does.
  • 7. TYPES OF ROBOTS USED IN AGRICULTURE Demeter(used for harvesting). Robot for weed control. Forester robot. Fruit picking robot.
  • 8. DEMETER Demeter is a robot that can cut crops it look like a normal harvester, but can drive by itself without any human supervision. Demeter has cameras on it that can detect the difference between the crop that has been cut and crop that hasn't. This information tells it where to drive, where to put its cutter head, and when it has come to end of a crop row so it can turn around. The Demeter robot can also be drive by remote control or, Demeter can be taught a path and then follow that path using its on board sensor and computer control systems.
  • 9.
  • 10. The Demeter system strives to provide three levels of automation First, “a cruise control” feature, which will automatically steer, drive and control the harvesting header, will be provided to harvest operators. Second, “drone” feature, will be provided, allowing one operator to remotely control several harvesters. Third, “a fully autonomous machine” will be developed that will allow a harvester to completely harvest a afield without any human supervision .
  • 11. WEED CONTROLLER A four-wheel-drive weed seeking robot was developed and the task of weed removing device is to remove or destroy the weed. Crops that are grown in rows can be weeded by running a hoe between the crop rows. An intelligent hoe uses vision systems to identify the rows of crops and steer itself accurately between them, considerably reducing the need for herbicides. Weed identification is based on color photography. The equipped robot helps production of weed maps identifying plants.
  • 12.
  • 13. FOREST ROBOTS It consists of two types, they are Treebot Forestor robot
  • 14. TREEBOT : A fearless mobile robot is helping scientists monitor environmental change in the forests. Treebot consists of combine networked sensors, a web camera, and a wireless net link. It is very important in the biology community to understand the interaction between the atmosphere and the forest environment. But 90% of all interaction between the environment and atmospheric conditions happen high up in the forest canopy. The treebot helps by being stealthy enough to travel through the forest canopy along specially constructed cabling, night and day.
  • 15.
  • 16. FORESTOR ROBOT: This is the special type of robot used for cutting up of wood, tending trees, and for harvesting pulp and hard wood and in the forest. It employs a special jaws and axes for chopping the branch. The forester robot with six legged moves in the forest.
  • 17.
  • 18. ROBOTS IN HORICULTURE Robot is used in lawns to cut the grass in lawns. It can cut any lawn, regardless of its geometric shape. In automatic mode, a fully charged robo-mower can typically mow a lawn of 2500-3200 sq.ft., depending on the number of obstacles in its path, slopes, height of grass, humidity ,etc. It operates electrically on rechargeable batteries, mulching blades, whisper quiet operation and without any pollution.
  • 19. FRUIT PICKING ROBOT The fruit picking robots need to pick ripe fruit without damaging the branches or leaves of the tree. The robots must be able to access all areas of he tree being harvested. The robot can distinguish between the fruit and leaves by using video image capturing. The pressure applied to the fruit is sufficient for removal from the tree, but not enough to crush the fruit.
  • 20.
  • 21.
  • 22. FUTURE SCOPE Flying micro robot : Scientist from the world are reverse engineering the mechanics of insects as they design midget robots to scout battle- fields, search for victims trapped in rubble, and record images in agricultural fields. The micro robot consists of propeller by which it can fly to heights these features include the ability to zero in and the land precisely on a potato chip and the flap their wings to buzz off with blazing speed.
  • 23.
  • 24. ADVANTAGES The robo does not get sick or tired and does not need time off. it can be used in various fields like medicine, mining, and space research. The machine could easily work around trees, rocks, ponds and other obstacles. Small suburban fields could be worked almost as efficiently as large tracts of land.
  • 25. DISADVANTAGE One of the key disadvantages of driverless machines for agriculture is liability. Robots could change the culture /emotional appeal of agriculture. Energy issues costly.
  • 26. CONCLUSION In agriculture, the opportunities for robot-enhanced productivity are immense – and the robots are appearing on farms in various guises and in increasing numbers. The other problems associated with autonomous farm equipment can probably be overcome with technology. One of the advantages of the smaller machines is that they may be more acceptable to the non-farm community. The jobs in agriculture are a drag, dangerous, require intelligence and quick, though highly repetitive decisions hence robots can be rightly substituted with human operator. The higher quality products can be sensed by machines. Robots can improve the quality of our lives but there are downsides.
  • 27. References  IEEE ROBOTICS &AUTOMATION SOCIETY, SUB COMMITTEE FOR ROBOTICS AND AUTOMATION.  ROBOTICS TECHNOLOGY AND AUTOMATION BY S R DEB.  INDUSTRIAL ROBOTICS BY MIKELL P. GROOVER.  EPSON MICRO FIYING ROBOT.