for agriculture development

2. Seminar on
AGRICULTURAL AUTOMATION BY IOT
PRESENTED BY
MOHMMEDFUZAIL
2SA13EE012

3. CONTENTS
 INTRODUCTION
 MESSAGE COMMUNICATION IN AGRITECH
 DESIGN OF AGRITECH
 ARCHITECTURE OF AGRITECH
 STATEMENT OF PROBLEM
 APPROACHES AND METHODS
 ADVANTAGES AND LIMITATIONS
 RESULTS AND DISCUSSION
 CONCLUSION
 REFFERENCES

4. INTRODUCTION
 The Internet of Things (IoT) is vast network of devices connected to
internet, including smart phones, tablets and almost anything with a
sensor on it.
 Agriculture is consider a basic life of human, to improve the yield of
crops IoT is implemented.
 There are number of factors which are going to affect the
productivity to great extend. The proposes a system which is
useful in monitoring the field data as well as controlling the field
operations which provides the flexibility.
 Temperature maintenance, humidity maintenance soil moisture
maintenance etc.

5. message COMMUNICATION IN AGRITECH
 First is the human to object (things) communication
 Second is the object (things) to object (things)
communication
 Third is the object to Internet communication
 Fourth is human to internet communication

6. DESIGN OF AGRITECH
 We design AgriTech using the object oriented
design approach. Different actors in our proposed
system are namely, sensor node, base station, local
gateway, satellite, cloud, farmer and expert
 AgriTech will be semi automated system
consisting of automated as well as manual devices.

7. ARCHITECTURE of AGRITECH

8. STATEMENT OF PROBLEM
 Attack of insects and pests
which can be controlled by
spraying the crop with
proper insecticide, pesticides.
 Solution providers looking
to build and sell new smart
agriculture IoT applications.

9. Continue…
 IOT monitor sensors that
can detect soil moisture,
crop growth and livestock
feed levels, remotely manage
and control their smart
connected harvesters and
irrigation equipment.
 Climatic change, soil
moisture weather forecasting

10. APPROACHES AND METHODS
 Internet of Things
(IOT) or Internet of
everything's.
 Things or Objects.
 Local Gateway.
 Internet.
 Data Cloud and Mobile
Phone Application.

11. ADVANTAGES
 Humidity sensors will be
attached with the sensor
node to measure the
moisture level of soil.
 AgriTech helps Plantation
and harvesting, improve the
crop yields while ensuring
the quality of crops.

12. CONTINUE…
 The attack by insects and pests will be detected by
the insect detector/pest detector sensor
 It also reduces the effort of farmer and reduces
time to spend in paddy fields.
 By implementing the AgriTech, GDP of the
country with per capita income will be increase.

13. LIMITATIONS
 Farmers may not afford initial setup cost.
 They have to pay the cloud service provider for using
the AgriTech.
 Sensors deployed in field are vulnerable to physical
attack.
 If improper deployment is done, sensors may sense the
field not belonging to that corresponding farmer.

14. APPLICATIONs
 Pest and disease control system.
 Irrigation system considering soil state.
 Crop storage system.
 Precise fertilizing system.

15. RESULTS and discussion
 The global smart agriculture solution market was
estimated to be valued in excess of US$ 10 Bn by the end
of 2016.
 The smart agriculture solution market in North America
was estimated to reach more than US$ 5,000 Mn by the
end of 2016.
 By 2026 the North America smart agricultural a CAGR of
9.8%, Latin America is expected to record a CAGR of
12.3%

16. CONTINUE…
By 2026 the North America
smart agricultural a CAGR of
9.8%, Latin America is
expected to record a CAGR of
12.3%
The only way is if we can
apply AgriTech over
agriculture can increase the
per capita income.

17. CONCLUSION
 AgriTech that consists of smart devices, LAN, WAN,
PAN and RFID, GATEWAY and InternetCloud by
which agricultural processes will be automated.
 Using smart mobile technology can reduce the human
effort in agricultural sector.
 AgriTech can be claimed as an eco-friendly technology
 AgriTech can improve the GDP of the country.

18. REFERENCE
[1] S. R. Nandurkar, V. R. Thool, R. C. Thool, “Design and Development of
Precision Agriculture System Using Wireless Sensor Network”, IEEE International
Conference on Automation, Control, Energy and Systems (ACES), 2014
[2] Joaquin Gutiérrez, Juan Francisco Villa-Medina, Alejandra Nieto-Garibay, and
Miguel Ángel Porta-Gándara, “Automated Irrigation System Using a Wireless
Sensor Network and GPRS Module”, IEEE Transaction on instrumentation and
measurement, 0018-9456,2013
[3] Dr. V .Vidya Devi,G. Meena Kumari, “Real- Time Automation and Monitoring
System for Modernized Agriculture” ,International Journal of Review and Research
in Applied Sciences and Engineering (IJRRASE) Vol3 No.1. PP 7-12, 2013
[4] Y. Kim, R. Evans and W. Iversen, “Remote Sensing and Control of an Irrigation
System Using a Distributed Wireless Sensor Network”, IEEE Transactions on
Instrumentation and Measurement, pp. 1379–1387, 2008.