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AUTOMATION IN
AGRICULTURE
PRESENTED BY
A.VIJAY ANAND
T.G.VIJAY RAJ

AUTOMATION
 The work is done by robot without any man power.
 Automation is used in all fields eg ; automobiles ,
manufacturing fields.
 Automation is a illumination of human afford from the
working field.
 Recently automation is used in agriculture.
 Major work in agriculture are done with the help of
automation.
 Pesticide spraying , dropping the seeds , ploughing ,
providing water to crop.

AGRICULTURE AUTOMATION
 Agriculture robot or agribot deployed for agriculture
purposes.
 Fruits picking robots , driverless tractor/sprayer, and
sheep shearing robots.
 Pruning , weeding , spraying and monitors of orchids.
 Livestock application , Automatic milking , washing.
 Less needs for labour work.

NEEDS OF AUTOMATION
 Automation in agriculture is very necessary because of
firstly by the year 2042, the world population is
projected to increase to 9 billion souls.
 Secondly with tradition method of agriculture some
drawbacks like wastage of seed, improper spraying of
pesticide on crop so soil standard get degrades also food
become harmful to human body.
 . In order to overcome all the above drawbacks of
tradition agriculture and to become the agriculture field
modern , hi-tech and fastest growing

CONTD....
 Lack of man power.
 For maintaining uniformity.
 Mechanization and automation in agricultural fields
improves the productivity.
 Water irrigation methods like trip ,springler, by
automation reduces the utilization of water.
 By automation processes crop calendar is maintained.

PROGRAM FOR ROBOTS
 Designing automatic system
we provide proper tracking
through the white line
following robot concept in
which the robot
distinguishes white and
black or dark surface and
follows only white track.
 To this concept we are
going to implement a white
line on a farm where
actually we need to work &
remaining surface is treated
as a black surface due to the
brownish color of soil.

WORKING OF ROBOTS
 We provide delay to robot at equal distance to do the
agriculture work like pesticide spraying, water
supplying, plugging, dropping of seed, accurately and
automatically.
 The pesticide liquid which is contain by a tank is came
through the rubber pipe to the tip of DC motor , at that
shaft of motor a fan blade is attach , which revolves at
the delay time of robot or on front of crop.
 Due to revolution the liquid get spray on crop.

FOOD SHORTAGES , BIG BUSINESS
 The World Bank says we'll
need to produce 50% more
food by 2050 if the global
population continues to rise
at its current pace.
 But the effects of climate
change could see crop
yields falling by more than
a quarter.
 So autonomous tractors,
ground-based sensors,
flying drones and enclosed
hydroponic farms could all
help farmers produce more
food, more sustainably at
lower cost.

PRECISION PRUNING
 But even here automation is
encroaching.
 Wine makers have used
drones to inspect their
vineyards for several years,
with high-definition
cameras and sensors
assessing crop and soil
health.
 But in France's Burgundy
region, a shortage of farm
labour has led inventor
Christophe Millot to
develop a vine-pruning
robot called Wall-Ye.

CONTD....
 The machine learns as it
goes and can trim the grass
around each vine. An
onboard solar-powered
battery gives 10-12 hours of
charge, so with a change of
battery, it can work day and
night.
 Visual recognition is the
biggest challenge, says Mr
Millot - knowing where to
make the cut. This is
actually easier at night,
because the robot's lights
can illuminate the plant, but
not its background.

ROBOT LETTUCE
 Japanese firm Spread's
automated vegetable factory
in Kyoto, due to launch next
year, could produce 30,000
lettuces a day.
 It stretches up, instead of
across undulating fields,
because "in countries like
Japan, where land is
actually a very scarce
resource, it makes more
sense to stack your
production.

CONTD....
 After seeding will be done
by machines - watering,
trimming, harvesting - on
shelves stacked from floor
to ceiling.
 Automation has reduced
labour costs by 50%, says
Mr Price. And LED lighting
developed specifically for
plant cultivation reduces
energy costs by 30%. And
growing vegetables in
vertical farms means you
can recycle 98% of the
water.

DRONE MONITORS
 Back outside, drones are
monitoring crop growth
rates, spotting disease, and
even spraying crops with
pesticides and herbicides
 Although GPS signals are
generally strong in
agricultural areas, one
challenge for drones and
other farmland robots is
coping with patchy internet
and mobile connectivity.

CONTD...
 So Dr Trianni's team is
using ultra-wideband radio
for his drones to
communicate without
relying on rural 3G or 4G
mobile connections.
 From 1950 to 2010,
according to the
International Labour
Organization (ILO),
agricultural labourers as a
percentage of the workforce
declined from 81% to
48.2% in developing
countries, and from 35% to
4.2% in developed ones.

ADVANTAGES
 Eco friendly.
 Reduces human effort.
 Improves the productivity.
 Uniformity of work.
 Reduce the production cost.
 Less operating cost.

DISADVANTAGES
 High initial cost.
 Requires knowledge about robot for operators.
 Reducing job opportunities.
 High maintenance cost.
 Suitable for farming in large areas.

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Automation in agriculture

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