SlideShare a Scribd company logo
1 of 66
WELCOME
 Introduction
 Topic Covered
 How Robots Work
 Need of Robotic Agriculture
 Types of Robots
 Robots used in Agriculture
 Future Scope
 Advantages and disadvantages
 Conclusion
Introduction
Robots:-
The word robot was derived from the Czech word
robota – forced labor orwork.
A robot is a mechanical, artificial agent and is usually an
electromechanical system. It is a device that, because of software
programming, makes complicated tasks easy to perform.
Robots
The word robot was derived from the Czech word
robota – forced labor or work.
A robot is a mechanical, artificial agent and is usually
an electromechanical system. It is a device that, because of
software programming, makes complicated tasks easy to
perform.
INTRODUCTION
Agriculture robots
 Agricultural Robotics is the logical proliferation of automation
technology into bio systems such as agriculture, forestry, green
house, horticulture etc.
 In agriculture, the opportunities for robot-enhanced productivity are
immense and the robots are appearing on farms in various guises and
in increasing numbers
 To Study focus on the economic feasibility of applying
autonomous robotic vehicles.
 To review of robot usage and outcome of using robots in
agriculture.
 To know how crop production could be automated in the
future.
 Robots can move and sense.
 They require multiple sensors and controls that allow them
to move in an unknown environment.
Robots usually have five parts
1) Sensors
2) Controller/Computer
3) Drive/Actuator
4) Arm
5) End-effectors
 The sensors send information in the form of electronic signals
back to thecontroller.
 Sensors can give the robot controller information about its
surroundings.
 It is also called as computer.
 The controller functions as the "brain" of the robot.
 The controller also allows the robot to be networked to
other systems, so that it may work together with other
machines, processes, or robots.
 The drive or actuator is the “engine” of the robot.
 An actuator is defined as “a mechanical device that
produces motion.”





Hydraulic motor
Pneumatic motor
Stepper motor
Dc motor
Servo motor
 Usually, a robot’s arm is like a human arm with a
shoulder, elbow and fingers.
 The arm is the part of the robot that positions the end-effectors
and sensors to do their pre- programmed business.
 The end effectors means the last link (or end) of the robot.
 At this endpoint the tools are attached. In a wider sense, end effectors can
be seen as the part of a robot that interacts with the work environment.
Gripper Vaccum pump
Difference between automized
and conventional techniques
Conventional techniques depend on
human power and old techniques
Robots can work non stop, humans need
rest
Human may not be able to work in
hazardous environments
large sized wheels required in muddy soils,
robots small sized wheels perform well.
Robot scouts get detailed info about crop
Robots can detect presence of diseases,
weeds, insect infestations and other stress
conditions.
The lightweight of the robots do not
compact the soil as larger machinery does
Power Machinery power Human power and old
techniques
Work Capacity High Low (Human need
rest)
Time Less More
Product Quality High Low
Cost of Cultivation Initially high but in
long run low
Initially Low but In
Long run High
Yield High Low
Spraying Robot
Techniques involving
Agricultural Robots
 Processes like
ploughing, seeding, fertilizing, weeding, harvesting, spraying etc.
require large amount man power. Hence in order to reduce this
need, and save time and money, robots are employed.
MF- Scamp robots for scouting,
weeding and harvesting
 Speed
 Can work in hazardous/dangerous
 Can do repetitive tasks
 Can do work with accuracy
 Sustain domestic agriculture
 Facilitates 24 hr operations
 Improves safety
 Reduces labour needs
 Reduces chemical usage
Autonomous robots
 Work completely under the control of a computer
program.
Tele-controlled robots/ Remote-controlled
 Work under the control of
humans or computer
programs.
 Robots are controlled by
humans with a controller
such as a joystick or other
hand-held device.
1. Demeter
2. Weed control robot
3. Forester robot
4. Robot in horticulture.
5. Fruit picking robot
6. Drones
 Demeter is capable of planning harvesting operations
for entire field and driven by remote control.
 Demeter is a robot that can cut crops it looks like a
normal harvester, but can drive by itself without any
human supervision.
Source: Tom Pilarski et al.,(2002)
Source: David Slaughter et al.,(2008)
 Weed identification is based on color
photography.
 A four-wheel-drive weed-seeking
robot was developed by the Danish
Farm Research Authority.
 The task of the weed removing
device is to remove or destroy the
weed.
 An intelligent hoe uses vision
systems to identify the row of crops,
and steer itself accurately between
them, considerably reducing the
need for herbicides.
Source: Pedersen et al., (2006)
 Pick ripe fruit without damaging the
branches or leaves of the tree.
 The robot can distinguish between
fruit and leaves by using video
image capturing.
 If a match is obtained, the fruit
is picked.
 Mobility is a priority and the robots
must be able to access all areas
of the tree being harvested.
Source: Ashwini.K (2016)
 This is a special type of robot used for cutting
up of wood, tending trees, and pruning of X-
mass tree.
 The forester robot having six legs moves
wonders in the forest.
 It is used for harvesting pulp and hard wood
in the forests.
Source: Koteswara et al. (2014)
Model : TC-158N
Brand : TIAN CHEN
Origin : Made In China
Category : Horticulture & robotic lawn mower,
robotic grass cutter and auto garden mower
Price : US $534 / pc
Cutting height : 3cm-4cm
Cutting speed : 20m/min
Hill capability : 30degree max slope
Wireless remote
control distance : 6m
Type of battery : lithium and lead-acid
Charging time : 3hours
Average working time : 2-3hours
 Robot is used in lawns to cut
the grass in lawns. It can cut
any lawn and maintain of its
geometric shape
 Robot is used to Color, weight,
health and size of fruit or
vegetable are automatically
detected by sensors after
which a robotic arm puts the
right produce in right trey.
 To get a bird’s eye view of the land offers a quick and easy
way to check on the progress of crops and determine where
they may need to replant or direct pesticide applications.
 It is also used for weed, pest and disease control.
Source :Anderson,C, (2014)
Future Scope
 It is expected that it can be used in
agriculture for the control of weed and
insects.
 The robot suit is designed specifically to help out with
tough agricultural work like pulling radishes.
 The suit has eight motors fitted over the shoulders
elbows, back and knees to provide a power boost to the
wearer.
 The current model weighs 55 pounds and uses 16
sensors to function.
Vitirover solar Robot
 A French company designs a smart autonomous robot called
vitirover.
 Vitirover solar Robot used in Vines to Cuts Grass And Weeds
 The little robot uses the sun power to the electrical motors.
 Using a solar panel this agricultural autonomous machine could work
for hundred hours without rest.
 It could cuts grass and weeds to within 2-3 cm of vine and has a
speed that allows him to work 500 meters per hour.
Name of the Company : Green Robot Machinery Private Limited
Name of Founder : Manohar Sambandam
City : Bengaluru
Industry : Agriculture
Crop : cotton
Robot : GRoboMac
Target : 500kg/day
practices : Harvesting,
Pruning and Weeding.
 In the fully-automated Farm of the Future, dedicated robots will take
on farming jobs that once could be done only by people.
 It is not just on the ground that technology promises to transform
farming. Unmanned Air Vehicles, or drones, are also coming into play
on farms.
Alex Thomasson 2015
 Robots can work 24 hours a day, every day without rest.
 Robots don’t need to be paid wage (so money is saved).
 Robots are extremely accurate compared to humans,
so product quality is high.
 Robots can perform tasks more quickly than humans,
so more products can be made.
 Robots can work in very dangerous conditions.
 It can reduce up to 97% of farm’s use ofpesticide.
 Energy issues, costly.
 People are made unemployed because robots are doing their
job.
 Robots are very expensive and it can take more time to pay
for them.
 lack of decision-making power.
 Agriculture robots can reduce the cost of cultivation by controlling
the high cost of labor, efficient use of fertilizers, pesticides.
 Workload on farmers minimized by using these type of robots, and it
have to complete field operation at the time.
 The higher quality products can be obtained by this technique and
it is best for future farming.
1) Pilarski, Mike Happold, Henning Pangels, Mark Ollis, Kerien Fitzpatrick and Antony
Stentz, The Demeter System for Automated Harvesting ,robotics Institute, Carnegie
Mellon UniTomversity, autonomous robots 13(1)9-20,july (2002).
2) David Slaughter, Downey, Giles, Autonomous robotic Weed Control System, Computers
and Electronics in Agriculture 61(1):63-78, April(2008).
3) Ashwini.K, Survey Paper on Fruit Picking Robots, International Journal of Computer
Science and Mobile Computing IJCSMC, vol5, issue 1, January 2016, pg 96-101.
4) Anderson,C, Agricultural drones, Technology Review, 117,58-60, May (2014)
.http://search.proquest.com/docview/15341-43322/
5) P. Akella, M. Peshkin, E. Colgate, W. Wannasuphoprasit, N. Nagesh, J. Wells, S. Holland,
T. Pearson, and B. Peacock, “Robots for the automobile assembly line,” in Proceedings
1999. IEEE International Conference on Robotics and Automation(Cat. No.99CH36288C).
IEEE. [Online]. Available: https://doi.org/10.1109/robot.1999.770061.
Robotics in Agriculture

More Related Content

What's hot

Robotics in agriculture
Robotics in agricultureRobotics in agriculture
Robotics in agricultureMONISHA SELVAN
 
Drone technology is Improving Agriculture Industry
Drone technology is Improving Agriculture IndustryDrone technology is Improving Agriculture Industry
Drone technology is Improving Agriculture IndustryJone Smith
 
Agrorobot final seminar 26-03-2012
Agrorobot final seminar 26-03-2012Agrorobot final seminar 26-03-2012
Agrorobot final seminar 26-03-2012Aayush Kumar
 
USE OF DRONES IN AGRICULTURE.pdf
USE OF DRONES IN AGRICULTURE.pdfUSE OF DRONES IN AGRICULTURE.pdf
USE OF DRONES IN AGRICULTURE.pdfSENTHAMIL E
 
Automation in agriculture
Automation in agricultureAutomation in agriculture
Automation in agricultureSami Asokan
 
Smart agriculture system
Smart agriculture systemSmart agriculture system
Smart agriculture systemAyushGupta743
 
IOT in Agriculture slide.pptx
IOT in Agriculture slide.pptxIOT in Agriculture slide.pptx
IOT in Agriculture slide.pptxDHANPDGHALE
 
Agriculture Drones: Drones In The Field
Agriculture Drones: Drones In The FieldAgriculture Drones: Drones In The Field
Agriculture Drones: Drones In The FieldDronefly
 
Drone technology in agriculture
Drone technology in agricultureDrone technology in agriculture
Drone technology in agriculturerohinsaji
 
Advantage of drone sprayer
Advantage of drone sprayerAdvantage of drone sprayer
Advantage of drone sprayerJason Wen
 
Unmanned ariel vehicles(uav) in agriculture
Unmanned ariel vehicles(uav) in agricultureUnmanned ariel vehicles(uav) in agriculture
Unmanned ariel vehicles(uav) in agricultureyogi1296
 
Drones-as-a-Service for agricultural applications (by Philipp Trénel)
Drones-as-a-Service for agricultural applications (by Philipp Trénel)Drones-as-a-Service for agricultural applications (by Philipp Trénel)
Drones-as-a-Service for agricultural applications (by Philipp Trénel)TUS Expo
 
20 uses cases - Artificial Intelligence and Machine Learning in agriculture ...
20 uses cases - Artificial Intelligence and Machine Learning  in agriculture ...20 uses cases - Artificial Intelligence and Machine Learning  in agriculture ...
20 uses cases - Artificial Intelligence and Machine Learning in agriculture ...Victor John Tan
 
Agricultural drone
Agricultural droneAgricultural drone
Agricultural droneashishya30
 

What's hot (20)

Robotics in agriculture
Robotics in agricultureRobotics in agriculture
Robotics in agriculture
 
Agricultural Robots
Agricultural RobotsAgricultural Robots
Agricultural Robots
 
Agricultural Robotics
Agricultural RoboticsAgricultural Robotics
Agricultural Robotics
 
Drone technology is Improving Agriculture Industry
Drone technology is Improving Agriculture IndustryDrone technology is Improving Agriculture Industry
Drone technology is Improving Agriculture Industry
 
Agrorobot final seminar 26-03-2012
Agrorobot final seminar 26-03-2012Agrorobot final seminar 26-03-2012
Agrorobot final seminar 26-03-2012
 
Agriculture Robot
Agriculture RobotAgriculture Robot
Agriculture Robot
 
USE OF DRONES IN AGRICULTURE.pdf
USE OF DRONES IN AGRICULTURE.pdfUSE OF DRONES IN AGRICULTURE.pdf
USE OF DRONES IN AGRICULTURE.pdf
 
Automation in agriculture
Automation in agricultureAutomation in agriculture
Automation in agriculture
 
Smart agriculture system
Smart agriculture systemSmart agriculture system
Smart agriculture system
 
IOT in Agriculture slide.pptx
IOT in Agriculture slide.pptxIOT in Agriculture slide.pptx
IOT in Agriculture slide.pptx
 
Agriculture Drones: Drones In The Field
Agriculture Drones: Drones In The FieldAgriculture Drones: Drones In The Field
Agriculture Drones: Drones In The Field
 
Drone technology in agriculture
Drone technology in agricultureDrone technology in agriculture
Drone technology in agriculture
 
Advantage of drone sprayer
Advantage of drone sprayerAdvantage of drone sprayer
Advantage of drone sprayer
 
Unmanned ariel vehicles(uav) in agriculture
Unmanned ariel vehicles(uav) in agricultureUnmanned ariel vehicles(uav) in agriculture
Unmanned ariel vehicles(uav) in agriculture
 
Drones-as-a-Service for agricultural applications (by Philipp Trénel)
Drones-as-a-Service for agricultural applications (by Philipp Trénel)Drones-as-a-Service for agricultural applications (by Philipp Trénel)
Drones-as-a-Service for agricultural applications (by Philipp Trénel)
 
Ai in farming
Ai in farmingAi in farming
Ai in farming
 
20 uses cases - Artificial Intelligence and Machine Learning in agriculture ...
20 uses cases - Artificial Intelligence and Machine Learning  in agriculture ...20 uses cases - Artificial Intelligence and Machine Learning  in agriculture ...
20 uses cases - Artificial Intelligence and Machine Learning in agriculture ...
 
Agricultural drone
Agricultural droneAgricultural drone
Agricultural drone
 
PRECISION AGRICULTURE
PRECISION AGRICULTUREPRECISION AGRICULTURE
PRECISION AGRICULTURE
 
IoT in Agriculture
IoT in AgricultureIoT in Agriculture
IoT in Agriculture
 

Similar to Robotics in Agriculture

30092013115728 agricultural-robotics
30092013115728 agricultural-robotics30092013115728 agricultural-robotics
30092013115728 agricultural-roboticsrakesh mandiya
 
Agriculturalrobot 131207085503-phpapp01
Agriculturalrobot 131207085503-phpapp01Agriculturalrobot 131207085503-phpapp01
Agriculturalrobot 131207085503-phpapp01srtram
 
agribot rgit synopsis.docx
agribot rgit synopsis.docxagribot rgit synopsis.docx
agribot rgit synopsis.docxPrakashShashi1
 
AGRICULTURAL ROBOT FOR FUTURE FARMING
AGRICULTURAL ROBOT FOR FUTURE FARMINGAGRICULTURAL ROBOT FOR FUTURE FARMING
AGRICULTURAL ROBOT FOR FUTURE FARMING1396Surjeet
 
Agri-Robots.pptx
Agri-Robots.pptxAgri-Robots.pptx
Agri-Robots.pptxNaviN951963
 
AUTONOMOUS AGRICULTURAL BOT
AUTONOMOUS AGRICULTURAL BOTAUTONOMOUS AGRICULTURAL BOT
AUTONOMOUS AGRICULTURAL BOTIJSRED
 
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.pdfRudraPratapSingh871925
 
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...IRJET Journal
 
Revolutionizing Agriculture with Robots.pptx
Revolutionizing Agriculture with Robots.pptxRevolutionizing Agriculture with Robots.pptx
Revolutionizing Agriculture with Robots.pptxADISHPRAMOD
 
Km244 multipurpose agriculture robot
Km244 multipurpose agriculture robot Km244 multipurpose agriculture robot
Km244 multipurpose agriculture robot 1000kv technologies
 
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 RobotIRJET Journal
 
IRJET - Bluetooth Controlled Farm Robot
IRJET -  	  Bluetooth Controlled Farm RobotIRJET -  	  Bluetooth Controlled Farm Robot
IRJET - Bluetooth Controlled Farm RobotIRJET Journal
 
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 PLANTSIRJET Journal
 
Paper id 71201960
Paper id 71201960Paper id 71201960
Paper id 71201960IJRAT
 
Nanorobotics
NanoroboticsNanorobotics
Nanoroboticschsunny
 
Robotic Machines.pdf
Robotic Machines.pdfRobotic Machines.pdf
Robotic Machines.pdfInformation
 
Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)
Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)
Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)IRJET Journal
 

Similar to Robotics in Agriculture (20)

Es case study
Es case studyEs case study
Es case study
 
30092013115728 agricultural-robotics
30092013115728 agricultural-robotics30092013115728 agricultural-robotics
30092013115728 agricultural-robotics
 
Agriculturalrobot 131207085503-phpapp01
Agriculturalrobot 131207085503-phpapp01Agriculturalrobot 131207085503-phpapp01
Agriculturalrobot 131207085503-phpapp01
 
agribot rgit synopsis.docx
agribot rgit synopsis.docxagribot rgit synopsis.docx
agribot rgit synopsis.docx
 
AGRICULTURAL ROBOT FOR FUTURE FARMING
AGRICULTURAL ROBOT FOR FUTURE FARMINGAGRICULTURAL ROBOT FOR FUTURE FARMING
AGRICULTURAL ROBOT FOR FUTURE FARMING
 
Agri-Robots.pptx
Agri-Robots.pptxAgri-Robots.pptx
Agri-Robots.pptx
 
AUTONOMOUS AGRICULTURAL BOT
AUTONOMOUS AGRICULTURAL BOTAUTONOMOUS AGRICULTURAL BOT
AUTONOMOUS AGRICULTURAL BOT
 
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
 
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...
 
Revolutionizing Agriculture with Robots.pptx
Revolutionizing Agriculture with Robots.pptxRevolutionizing Agriculture with Robots.pptx
Revolutionizing Agriculture with Robots.pptx
 
Km244 multipurpose agriculture robot
Km244 multipurpose agriculture robot Km244 multipurpose agriculture robot
Km244 multipurpose agriculture robot
 
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
 
IRJET - Bluetooth Controlled Farm Robot
IRJET -  	  Bluetooth Controlled Farm RobotIRJET -  	  Bluetooth Controlled Farm Robot
IRJET - Bluetooth Controlled Farm Robot
 
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
 
Paper id 71201960
Paper id 71201960Paper id 71201960
Paper id 71201960
 
Nanorobotics
NanoroboticsNanorobotics
Nanorobotics
 
Robotic Machines.pdf
Robotic Machines.pdfRobotic Machines.pdf
Robotic Machines.pdf
 
Computer project
Computer projectComputer project
Computer project
 
Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)
Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)
Multipurpose Agriculture Pesticide Sprayer Robot (SprayRo)
 
Robotics
RoboticsRobotics
Robotics
 

More from Lokesh Waran

Extension Programmes of Ministry of Agriculture
 Extension Programmes of Ministry of Agriculture Extension Programmes of Ministry of Agriculture
Extension Programmes of Ministry of AgricultureLokesh Waran
 
FIRST-LINE EXTENSION SYSTEM
 FIRST-LINE EXTENSION SYSTEM FIRST-LINE EXTENSION SYSTEM
FIRST-LINE EXTENSION SYSTEMLokesh Waran
 
Rural Development Concept& Definitions
Rural Development Concept& DefinitionsRural Development Concept& Definitions
Rural Development Concept& DefinitionsLokesh Waran
 
Agricultural Technology Information Center (ATIC)
Agricultural Technology Information Center (ATIC)Agricultural Technology Information Center (ATIC)
Agricultural Technology Information Center (ATIC)Lokesh Waran
 
Development programmes
Development programmes Development programmes
Development programmes Lokesh Waran
 
AGRICULTURAL_JOURNALISM
AGRICULTURAL_JOURNALISMAGRICULTURAL_JOURNALISM
AGRICULTURAL_JOURNALISMLokesh Waran
 
diffusion of innovation.pptx
diffusion of innovation.pptxdiffusion of innovation.pptx
diffusion of innovation.pptxLokesh Waran
 
Dimensions of Agricultural Extension
Dimensions of Agricultural Extension Dimensions of Agricultural Extension
Dimensions of Agricultural Extension Lokesh Waran
 
Transforming agricultural extension systems towards achieving food and nutrit...
Transforming agricultural extension systems towards achieving food and nutrit...Transforming agricultural extension systems towards achieving food and nutrit...
Transforming agricultural extension systems towards achieving food and nutrit...Lokesh Waran
 
Mobile apps in Agriculture
Mobile apps in Agriculture Mobile apps in Agriculture
Mobile apps in Agriculture Lokesh Waran
 
M-Extension-An advanced communication strategy for technology dissemination i...
M-Extension-An advanced communication strategy for technology dissemination i...M-Extension-An advanced communication strategy for technology dissemination i...
M-Extension-An advanced communication strategy for technology dissemination i...Lokesh Waran
 
Digital Technologies for Transforming Indian Agriculture in 21st Century
Digital Technologies for Transforming Indian Agriculture in 21st Century Digital Technologies for Transforming Indian Agriculture in 21st Century
Digital Technologies for Transforming Indian Agriculture in 21st Century Lokesh Waran
 
Information and Communication Technology in dissemination of Agricultural Tec...
Information and Communication Technology in dissemination of Agricultural Tec...Information and Communication Technology in dissemination of Agricultural Tec...
Information and Communication Technology in dissemination of Agricultural Tec...Lokesh Waran
 

More from Lokesh Waran (17)

Extension Programmes of Ministry of Agriculture
 Extension Programmes of Ministry of Agriculture Extension Programmes of Ministry of Agriculture
Extension Programmes of Ministry of Agriculture
 
FIRST-LINE EXTENSION SYSTEM
 FIRST-LINE EXTENSION SYSTEM FIRST-LINE EXTENSION SYSTEM
FIRST-LINE EXTENSION SYSTEM
 
Rural Development Concept& Definitions
Rural Development Concept& DefinitionsRural Development Concept& Definitions
Rural Development Concept& Definitions
 
KVK
KVKKVK
KVK
 
Agricultural Technology Information Center (ATIC)
Agricultural Technology Information Center (ATIC)Agricultural Technology Information Center (ATIC)
Agricultural Technology Information Center (ATIC)
 
Development programmes
Development programmes Development programmes
Development programmes
 
PRA
PRAPRA
PRA
 
AGRICULTURAL_JOURNALISM
AGRICULTURAL_JOURNALISMAGRICULTURAL_JOURNALISM
AGRICULTURAL_JOURNALISM
 
diffusion of innovation.pptx
diffusion of innovation.pptxdiffusion of innovation.pptx
diffusion of innovation.pptx
 
Dimensions of Agricultural Extension
Dimensions of Agricultural Extension Dimensions of Agricultural Extension
Dimensions of Agricultural Extension
 
Transforming agricultural extension systems towards achieving food and nutrit...
Transforming agricultural extension systems towards achieving food and nutrit...Transforming agricultural extension systems towards achieving food and nutrit...
Transforming agricultural extension systems towards achieving food and nutrit...
 
Mobile apps in Agriculture
Mobile apps in Agriculture Mobile apps in Agriculture
Mobile apps in Agriculture
 
Agro tourism
Agro tourism Agro tourism
Agro tourism
 
M-Extension-An advanced communication strategy for technology dissemination i...
M-Extension-An advanced communication strategy for technology dissemination i...M-Extension-An advanced communication strategy for technology dissemination i...
M-Extension-An advanced communication strategy for technology dissemination i...
 
Digital Technologies for Transforming Indian Agriculture in 21st Century
Digital Technologies for Transforming Indian Agriculture in 21st Century Digital Technologies for Transforming Indian Agriculture in 21st Century
Digital Technologies for Transforming Indian Agriculture in 21st Century
 
Information and Communication Technology in dissemination of Agricultural Tec...
Information and Communication Technology in dissemination of Agricultural Tec...Information and Communication Technology in dissemination of Agricultural Tec...
Information and Communication Technology in dissemination of Agricultural Tec...
 
Agro tourism
Agro tourism Agro tourism
Agro tourism
 

Recently uploaded

Unleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding ClubUnleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding ClubKalema Edgar
 
Install Stable Diffusion in windows machine
Install Stable Diffusion in windows machineInstall Stable Diffusion in windows machine
Install Stable Diffusion in windows machinePadma Pradeep
 
AI as an Interface for Commercial Buildings
AI as an Interface for Commercial BuildingsAI as an Interface for Commercial Buildings
AI as an Interface for Commercial BuildingsMemoori
 
Human Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsHuman Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsMark Billinghurst
 
Pigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food ManufacturingPigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food ManufacturingPigging Solutions
 
CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):comworks
 
Bluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdfBluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdfngoud9212
 
My INSURER PTE LTD - Insurtech Innovation Award 2024
My INSURER PTE LTD - Insurtech Innovation Award 2024My INSURER PTE LTD - Insurtech Innovation Award 2024
My INSURER PTE LTD - Insurtech Innovation Award 2024The Digital Insurer
 
Dev Dives: Streamline document processing with UiPath Studio Web
Dev Dives: Streamline document processing with UiPath Studio WebDev Dives: Streamline document processing with UiPath Studio Web
Dev Dives: Streamline document processing with UiPath Studio WebUiPathCommunity
 
WordPress Websites for Engineers: Elevate Your Brand
WordPress Websites for Engineers: Elevate Your BrandWordPress Websites for Engineers: Elevate Your Brand
WordPress Websites for Engineers: Elevate Your Brandgvaughan
 
Beyond Boundaries: Leveraging No-Code Solutions for Industry Innovation
Beyond Boundaries: Leveraging No-Code Solutions for Industry InnovationBeyond Boundaries: Leveraging No-Code Solutions for Industry Innovation
Beyond Boundaries: Leveraging No-Code Solutions for Industry InnovationSafe Software
 
Bun (KitWorks Team Study 노별마루 발표 2024.4.22)
Bun (KitWorks Team Study 노별마루 발표 2024.4.22)Bun (KitWorks Team Study 노별마루 발표 2024.4.22)
Bun (KitWorks Team Study 노별마루 발표 2024.4.22)Wonjun Hwang
 
Unblocking The Main Thread Solving ANRs and Frozen Frames
Unblocking The Main Thread Solving ANRs and Frozen FramesUnblocking The Main Thread Solving ANRs and Frozen Frames
Unblocking The Main Thread Solving ANRs and Frozen FramesSinan KOZAK
 
Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)
Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)
Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)Mark Simos
 
Connect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationConnect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationSlibray Presentation
 
"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr Bagan"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr BaganFwdays
 
Science&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdfScience&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdfjimielynbastida
 

Recently uploaded (20)

Unleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding ClubUnleash Your Potential - Namagunga Girls Coding Club
Unleash Your Potential - Namagunga Girls Coding Club
 
Install Stable Diffusion in windows machine
Install Stable Diffusion in windows machineInstall Stable Diffusion in windows machine
Install Stable Diffusion in windows machine
 
E-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptx
E-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptxE-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptx
E-Vehicle_Hacking_by_Parul Sharma_null_owasp.pptx
 
AI as an Interface for Commercial Buildings
AI as an Interface for Commercial BuildingsAI as an Interface for Commercial Buildings
AI as an Interface for Commercial Buildings
 
Human Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR SystemsHuman Factors of XR: Using Human Factors to Design XR Systems
Human Factors of XR: Using Human Factors to Design XR Systems
 
Pigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food ManufacturingPigging Solutions in Pet Food Manufacturing
Pigging Solutions in Pet Food Manufacturing
 
CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):CloudStudio User manual (basic edition):
CloudStudio User manual (basic edition):
 
Bluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdfBluetooth Controlled Car with Arduino.pdf
Bluetooth Controlled Car with Arduino.pdf
 
My INSURER PTE LTD - Insurtech Innovation Award 2024
My INSURER PTE LTD - Insurtech Innovation Award 2024My INSURER PTE LTD - Insurtech Innovation Award 2024
My INSURER PTE LTD - Insurtech Innovation Award 2024
 
Dev Dives: Streamline document processing with UiPath Studio Web
Dev Dives: Streamline document processing with UiPath Studio WebDev Dives: Streamline document processing with UiPath Studio Web
Dev Dives: Streamline document processing with UiPath Studio Web
 
WordPress Websites for Engineers: Elevate Your Brand
WordPress Websites for Engineers: Elevate Your BrandWordPress Websites for Engineers: Elevate Your Brand
WordPress Websites for Engineers: Elevate Your Brand
 
Beyond Boundaries: Leveraging No-Code Solutions for Industry Innovation
Beyond Boundaries: Leveraging No-Code Solutions for Industry InnovationBeyond Boundaries: Leveraging No-Code Solutions for Industry Innovation
Beyond Boundaries: Leveraging No-Code Solutions for Industry Innovation
 
Bun (KitWorks Team Study 노별마루 발표 2024.4.22)
Bun (KitWorks Team Study 노별마루 발표 2024.4.22)Bun (KitWorks Team Study 노별마루 발표 2024.4.22)
Bun (KitWorks Team Study 노별마루 발표 2024.4.22)
 
Vulnerability_Management_GRC_by Sohang Sengupta.pptx
Vulnerability_Management_GRC_by Sohang Sengupta.pptxVulnerability_Management_GRC_by Sohang Sengupta.pptx
Vulnerability_Management_GRC_by Sohang Sengupta.pptx
 
Unblocking The Main Thread Solving ANRs and Frozen Frames
Unblocking The Main Thread Solving ANRs and Frozen FramesUnblocking The Main Thread Solving ANRs and Frozen Frames
Unblocking The Main Thread Solving ANRs and Frozen Frames
 
Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)
Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)
Tampa BSides - Chef's Tour of Microsoft Security Adoption Framework (SAF)
 
DMCC Future of Trade Web3 - Special Edition
DMCC Future of Trade Web3 - Special EditionDMCC Future of Trade Web3 - Special Edition
DMCC Future of Trade Web3 - Special Edition
 
Connect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck PresentationConnect Wave/ connectwave Pitch Deck Presentation
Connect Wave/ connectwave Pitch Deck Presentation
 
"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr Bagan"ML in Production",Oleksandr Bagan
"ML in Production",Oleksandr Bagan
 
Science&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdfScience&tech:THE INFORMATION AGE STS.pdf
Science&tech:THE INFORMATION AGE STS.pdf
 

Robotics in Agriculture

  • 2.
  • 3.
  • 4.  Introduction  Topic Covered  How Robots Work  Need of Robotic Agriculture  Types of Robots  Robots used in Agriculture  Future Scope  Advantages and disadvantages  Conclusion
  • 5. Introduction Robots:- The word robot was derived from the Czech word robota – forced labor orwork. A robot is a mechanical, artificial agent and is usually an electromechanical system. It is a device that, because of software programming, makes complicated tasks easy to perform. Robots The word robot was derived from the Czech word robota – forced labor or work. A robot is a mechanical, artificial agent and is usually an electromechanical system. It is a device that, because of software programming, makes complicated tasks easy to perform. INTRODUCTION
  • 6. Agriculture robots  Agricultural Robotics is the logical proliferation of automation technology into bio systems such as agriculture, forestry, green house, horticulture etc.  In agriculture, the opportunities for robot-enhanced productivity are immense and the robots are appearing on farms in various guises and in increasing numbers
  • 7.  To Study focus on the economic feasibility of applying autonomous robotic vehicles.  To review of robot usage and outcome of using robots in agriculture.  To know how crop production could be automated in the future.
  • 8.  Robots can move and sense.  They require multiple sensors and controls that allow them to move in an unknown environment.
  • 9. Robots usually have five parts 1) Sensors 2) Controller/Computer 3) Drive/Actuator 4) Arm 5) End-effectors
  • 10.  The sensors send information in the form of electronic signals back to thecontroller.  Sensors can give the robot controller information about its surroundings.
  • 11.  It is also called as computer.  The controller functions as the "brain" of the robot.  The controller also allows the robot to be networked to other systems, so that it may work together with other machines, processes, or robots.
  • 12.  The drive or actuator is the “engine” of the robot.  An actuator is defined as “a mechanical device that produces motion.”      Hydraulic motor Pneumatic motor Stepper motor Dc motor Servo motor
  • 13.  Usually, a robot’s arm is like a human arm with a shoulder, elbow and fingers.  The arm is the part of the robot that positions the end-effectors and sensors to do their pre- programmed business.
  • 14.  The end effectors means the last link (or end) of the robot.  At this endpoint the tools are attached. In a wider sense, end effectors can be seen as the part of a robot that interacts with the work environment. Gripper Vaccum pump
  • 15. Difference between automized and conventional techniques Conventional techniques depend on human power and old techniques Robots can work non stop, humans need rest Human may not be able to work in hazardous environments large sized wheels required in muddy soils, robots small sized wheels perform well. Robot scouts get detailed info about crop Robots can detect presence of diseases, weeds, insect infestations and other stress conditions. The lightweight of the robots do not compact the soil as larger machinery does
  • 16. Power Machinery power Human power and old techniques Work Capacity High Low (Human need rest) Time Less More Product Quality High Low Cost of Cultivation Initially high but in long run low Initially Low but In Long run High Yield High Low
  • 17. Spraying Robot Techniques involving Agricultural Robots  Processes like ploughing, seeding, fertilizing, weeding, harvesting, spraying etc. require large amount man power. Hence in order to reduce this need, and save time and money, robots are employed. MF- Scamp robots for scouting, weeding and harvesting
  • 18.  Speed  Can work in hazardous/dangerous  Can do repetitive tasks  Can do work with accuracy  Sustain domestic agriculture  Facilitates 24 hr operations  Improves safety  Reduces labour needs  Reduces chemical usage
  • 19.
  • 20. Autonomous robots  Work completely under the control of a computer program. Tele-controlled robots/ Remote-controlled  Work under the control of humans or computer programs.  Robots are controlled by humans with a controller such as a joystick or other hand-held device.
  • 21. 1. Demeter 2. Weed control robot 3. Forester robot 4. Robot in horticulture. 5. Fruit picking robot 6. Drones
  • 22.  Demeter is capable of planning harvesting operations for entire field and driven by remote control.  Demeter is a robot that can cut crops it looks like a normal harvester, but can drive by itself without any human supervision. Source: Tom Pilarski et al.,(2002)
  • 23. Source: David Slaughter et al.,(2008)  Weed identification is based on color photography.  A four-wheel-drive weed-seeking robot was developed by the Danish Farm Research Authority.  The task of the weed removing device is to remove or destroy the weed.  An intelligent hoe uses vision systems to identify the row of crops, and steer itself accurately between them, considerably reducing the need for herbicides.
  • 24.
  • 25.
  • 26. Source: Pedersen et al., (2006)
  • 27.  Pick ripe fruit without damaging the branches or leaves of the tree.  The robot can distinguish between fruit and leaves by using video image capturing.  If a match is obtained, the fruit is picked.  Mobility is a priority and the robots must be able to access all areas of the tree being harvested. Source: Ashwini.K (2016)
  • 28.
  • 29.
  • 30.  This is a special type of robot used for cutting up of wood, tending trees, and pruning of X- mass tree.  The forester robot having six legs moves wonders in the forest.  It is used for harvesting pulp and hard wood in the forests.
  • 31. Source: Koteswara et al. (2014)
  • 32.
  • 33. Model : TC-158N Brand : TIAN CHEN Origin : Made In China Category : Horticulture & robotic lawn mower, robotic grass cutter and auto garden mower Price : US $534 / pc Cutting height : 3cm-4cm Cutting speed : 20m/min Hill capability : 30degree max slope Wireless remote control distance : 6m Type of battery : lithium and lead-acid Charging time : 3hours Average working time : 2-3hours
  • 34.  Robot is used in lawns to cut the grass in lawns. It can cut any lawn and maintain of its geometric shape  Robot is used to Color, weight, health and size of fruit or vegetable are automatically detected by sensors after which a robotic arm puts the right produce in right trey.
  • 35.  To get a bird’s eye view of the land offers a quick and easy way to check on the progress of crops and determine where they may need to replant or direct pesticide applications.  It is also used for weed, pest and disease control. Source :Anderson,C, (2014)
  • 36.
  • 38.
  • 39.  It is expected that it can be used in agriculture for the control of weed and insects.
  • 40.  The robot suit is designed specifically to help out with tough agricultural work like pulling radishes.  The suit has eight motors fitted over the shoulders elbows, back and knees to provide a power boost to the wearer.  The current model weighs 55 pounds and uses 16 sensors to function.
  • 41.
  • 42. Vitirover solar Robot  A French company designs a smart autonomous robot called vitirover.  Vitirover solar Robot used in Vines to Cuts Grass And Weeds  The little robot uses the sun power to the electrical motors.  Using a solar panel this agricultural autonomous machine could work for hundred hours without rest.  It could cuts grass and weeds to within 2-3 cm of vine and has a speed that allows him to work 500 meters per hour.
  • 43.
  • 44.
  • 45. Name of the Company : Green Robot Machinery Private Limited Name of Founder : Manohar Sambandam City : Bengaluru Industry : Agriculture Crop : cotton Robot : GRoboMac Target : 500kg/day practices : Harvesting, Pruning and Weeding.
  • 46.
  • 47.
  • 48.
  • 49.
  • 50.
  • 51.
  • 52.
  • 53.
  • 54.
  • 55.
  • 56.
  • 57.
  • 58.
  • 59.  In the fully-automated Farm of the Future, dedicated robots will take on farming jobs that once could be done only by people.  It is not just on the ground that technology promises to transform farming. Unmanned Air Vehicles, or drones, are also coming into play on farms.
  • 61.
  • 62.  Robots can work 24 hours a day, every day without rest.  Robots don’t need to be paid wage (so money is saved).  Robots are extremely accurate compared to humans, so product quality is high.  Robots can perform tasks more quickly than humans, so more products can be made.  Robots can work in very dangerous conditions.  It can reduce up to 97% of farm’s use ofpesticide.
  • 63.  Energy issues, costly.  People are made unemployed because robots are doing their job.  Robots are very expensive and it can take more time to pay for them.  lack of decision-making power.
  • 64.  Agriculture robots can reduce the cost of cultivation by controlling the high cost of labor, efficient use of fertilizers, pesticides.  Workload on farmers minimized by using these type of robots, and it have to complete field operation at the time.  The higher quality products can be obtained by this technique and it is best for future farming.
  • 65. 1) Pilarski, Mike Happold, Henning Pangels, Mark Ollis, Kerien Fitzpatrick and Antony Stentz, The Demeter System for Automated Harvesting ,robotics Institute, Carnegie Mellon UniTomversity, autonomous robots 13(1)9-20,july (2002). 2) David Slaughter, Downey, Giles, Autonomous robotic Weed Control System, Computers and Electronics in Agriculture 61(1):63-78, April(2008). 3) Ashwini.K, Survey Paper on Fruit Picking Robots, International Journal of Computer Science and Mobile Computing IJCSMC, vol5, issue 1, January 2016, pg 96-101. 4) Anderson,C, Agricultural drones, Technology Review, 117,58-60, May (2014) .http://search.proquest.com/docview/15341-43322/ 5) P. Akella, M. Peshkin, E. Colgate, W. Wannasuphoprasit, N. Nagesh, J. Wells, S. Holland, T. Pearson, and B. Peacock, “Robots for the automobile assembly line,” in Proceedings 1999. IEEE International Conference on Robotics and Automation(Cat. No.99CH36288C). IEEE. [Online]. Available: https://doi.org/10.1109/robot.1999.770061.