AN AMELIORATED METHODOLOGY FOR THE DESIGN AND IMPLEMENTATION OF SMART PLANT SYSTEM

International Journal of Innovative Research in Information Security (IJIRIS) ISSN: 2349-7009(P)
Issue 05, Volume 04 (March 2017) SPECIAL ISSUE www.ijiris.com ISSN: 2349-7017(O)
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AN AMELIORATED METHODOLOGY FOR THE
DESIGN AND IMPLEMENTATION OF SMART PLANT
SYSTEM
1
Rashmi M V, 2
Dr.R.N.Kulkarni
1
M. Tech. Computer Science & Engineering, Ballari Institute of Technology & Management, Ballari, VTU Belgavi,
2
Professor and Head & Dept. of CSE, BITM Ballari, Karnataka, India,
Abstract-- In India Agriculture is the main profession. Majority of the farmers are dependent on the traditional approach
of farming where they have to stay in their lands either for supplying the water to the crops or to monitor the moisture
level in the soil and also the growth of plants. There is a possibility of excess water at some part of the land and there is a
deficiency of water on the other side. This is one of the major problems to the farmer where he has to continuously
monitor the flow of water. In this paper, we are proposing an automated smart plant system which supply the required
quantity of water to the land, measures the moisture content in the soil using moisture sensor, and also measures the
temperature and humidity in that area using temperature and humidity sensor. The proposed system is developed using
hardware devices such as Arduino uno, Sensors, Relay board, Ethernet shield etc. In this system we are using a mobile
phone to control all the equipments and devices which are connected in the system and we also send signals to start and
stop the device through the mobile phone only.
Keywords: Arduino uno, Ethernet shield, Relay board, Moisture Sensors, Temperature and Humidity sensor.
1. INTRODUCTION
In India agriculture is the main profession. Majority of the farmers are dependent on the traditional approach of farming
where they have to stay in their lands either for supplying the water to the crops or to monitor the moisture level in the soil
and also the growth of plants. There is a possibility of wastage of water as well as somewhere it is excess water and
somewhere there is a deficiency. The Internet of Things (IoT) based smart plant system continuously monitors the health
status of plants and crops. Monitoring the plants, that is observing and checking the progress of plants is one of the most
important jobs for the farmers in any agriculture lands or farming fields. Traditionally farmers need to periodically visit their
farming or agriculture fields to check the plants status like moisture level in the soil, temperature and humidity etc. Based on
the necessity, the farmers pump the water by motor to irrigate their fields. The farmers have to stay in their fields and need to
wait till the water flows sufficiently to plants and thereafter needs to turn off the motor. In this traditional approach of
farming there is wastage of water as well as sometimes there is a excess water in some portion of the land and sometimes
deficiency of water in the other parts of the land. Every time to start and stop the water pump the farmer needs to stay in the
land itself. Sometimes there is a breakdown in the power supply, the farmer has to wait until he gets a power supply and can
switch on motor. To overcome all these problems with the existing system we are proposing an automated system using the
appropriate hardware devices such as Arduino uno, Ethernet shield, Relay board, and other sensors.
1.1 MOTIVATION
The most essential features for the quality and richness of plants growth are temperature, humidity, moisture level of the soil.
Constantly monitoring of these three environmental features gives related information to the farmer to easily analyze that
which parameters are affecting to get the maximum quality and richness of the plant growth. Controlling the climate and
checking the status of plants health is one of the greatest tasks in the agriculture field or farming areas. The main motivation
of the project is for the user to monitor the plants health status, cultivation or irrigation process to get sufficient water to
plants based on the moisture level in the soil, without the users need to be present at the fields or cultivation areas. This paper
also proposes that the system helps the farmers to give the required resources to the plants remotely without much more
manual effort and also helps in richness and healthy growth of crops.

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1.2 LITERATURE SURVEY
S.V.Devika et al [1] discussed automatic watering system to the plants using Arduino uno. The system allows water to flow
if necessary or required for the agriculture fields and avoids the wastage of water. When the water level in the tank is empty,
the system switches ON the motor. When the water level reaches the particular level, the system switches OFF the motor.
This system is implemented in such a way that it will sense the soil moisture level and supply the water if necessary. In the
existing system the supply of water is based on the moisture content in the soil but in our proposed paper we are also testing
for the temperature and humidity in addition to the moisture level in the soil. SangmeshMalge et al[2] developed a embedded
system that handles the overall irrigation process. The farmer receives the SMS by the system which is received by GSM
module and forwards the SMS command to microcontroller to take further actions. The farmer first checks the parameters
like water level, temperature etc by sending SMS to embedded system. The embedded system reply with the related
information about the above parameters, then the necessary actions will be taken by the farmers by sending commands via
SMS to the system. In the existing system the user can control the system by sending SMS but in our proposed paper the user
can control the system using mobile application through internet and can also access the data related to plant status which is
stored in the cloud through internet. And also the existing system monitors the temperature but in our proposed paper we are
also testing for the moisture level in the soil. BenahmedKhelifa et al[3] discussed the smart irrigation system techniques
based on internet of things. In this smart irrigating system sensors are placed in the farming or agriculture lands. The soil
moisture value, water level in tank, well water level values are sent to web server to mobile data communication network.
The existing system monitors the soil moisture level but in our proposed paper we are also testing for the temperature and
humidity measures in that area in addition to the moisture level in the soil and also we pump the water to plants based on the
soil moisture.
ChandanKumarSahu et al[4] proposed a low cost smart irrigation control system. This system includes the sensor nodes and
control nodes. In this system the agriculture field is partitioned into small squares and soil moisture sensor is placed in each
square. The sensor sends the moisture level of the soil to the Arduino uno board through wireless sensor network. The
control node is used to start or stop the irrigation process based on values. The existing system monitors the moisture level in
the soil but in our proposed paper we are also testing for the temperature, humidity and water level in tank in addition to the
moisture level in the soil. Ayman M.Hussain et al[5] in his paper presents irrigation management system(IMS) for open
canals using the wireless sensor network and water pumps. In this system they used two main sensors that is water level
sensor and flow sensor. The water level sensor is connected to the main irrigation canal and water flow sensor is connected to
the water pumps. Both these sensors are connected to the wireless gateway. This gateway sends data continuously to web
server. The database will be connected to the webserver which checks the level of water at all canals. The web based IMS
compares the data stored in database with specified values and then it sends SMS to the farmer. The existing system is used
to pump the water to lands through canals but in our proposed paper we pump the water to crops based on the moisture level
of the soil and we also monitor the temperature and humidity measure in that area. A.Kumar et al[6] proposed a low cost
moisture sensor which uses xbeebased data acquisition system that is used for automatic irrigation process. The authors have
implemented an impedance based moisture sensor. These sensors task is to work on the change of impedance between two
electrodes that are placed in the soil; its moisture level changes can be measured in a relative manner. In this paper they have
tested only moisture level. In the existing system they have tested only the moisture level in the soil but in our proposed
paper we also monitor the water level in the tank and temperature and humidity values in that area in addition to the soil
moisture and we pump the water to plants basedon moisture level in the soil. Y.Kimet et al[7] proposes a system for crops
growth or production over a vast area with the use of wireless sensor network and decision making software for effective
cultivation or irrigation process. The system consists of different sites such as sensing and a weather site. They have used five
sensing sites. Every sensing site consists of a processor with two soil water reflectometers, and also consists of soil
temperature sensor and Bluetooth communications. Each sensing site senses the soil moisture value and soil temperature
value and then stores the data in the database. Then the irrigation process is started by the decision making software that
makes use of the information taken from the information network and location of irrigation machine. In the existing system
they have tested for soil moisture and temperature but in our proposed paper we also monitor the water level in the tank and
humidity in addition to the temperature and moisture level in the soil. Mancuso et al[8] has done a research work in tomato
greenhouse which is situated in the south of Italy. They have used the sensicast devices for the air temperature, humidity and
soil temperature monitoring and measuring with wireless sensor network. They have implemented a web based plant
monitoring application. Greenhouse grower can check the measurements over the internet. The alarm will be set and is sent
to the user mobile phone by SMS or GPRS if there is any rapid change in the measurement variables. The existing system
monitors soil moisture and temperature but in our proposed paper we also monitor the humidity and water level in the tank
and pump the water to plants based on moisture level in the soil. Teemu Ahonenet al[9] has done the research in martens
greenhouse research centre’s which is situated in the narpio town in western finland. They have integrated three commercial
sensors with sensinode’s sensor platform. It measures the four environmental key parameters in greenhouse control. They
have used SHT75 sensor to check the temperature and humidity value, TSL262R sensor to check the light irradiance and
Figaro’s TGS4161 sensor to sense the CO2.

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The system feasibility was verified in a star topology setup in a tomato greenhouse. In the existing system they have tested
for the temperature and humidity but in our proposed paper we also monitor the moisture level in the soil and water level in
the tank in addition to the temperature and humidity measures.
1.3 TERMINOLOGY
Arduino uno: Arduino uno is a hardware device consisting of 14 pins out of which 6 pins are used as input and 6 pins are
used as output and can be connected to the system using USB cable.
Ethernet Shield: The Ethernet shield is used to connect the Arduino board to the internet in a very few minutes and this
Ethernet shield should be plugged on the Arduino board.
Relay board: A relay is used to operate the switch electrically and also provides electric isolation to prevents damage
between electric circuits.
Internet of Things: The internet of things is the inter-connection of many physical devices that is used to send and receive
data.
II. PROPOSED METHODOLOGY
This paper presents a smart plant system which is based on Internet of things that uses different hardware components such
as Arduino uno board, Ethernet shield that makes the internet connection to the Arduino board in few minutes and Relay
board which supplies power between circuits. In this plant system we have used different sensors like soil moisture sensor
which checks the moisture level in the soil, Temperature and humidity sensor that is DHT11 sensor which gives the
temperature and humidity values, and Ultrasonic sensor which is used to check the water level in the tank. The proposed
system allows the user to constantly check the water level in the tank remotely on a mobile application through internet. The
user can switch ON or OFF the motor depending on the level of water in the tank irrespective of physical location of the user.
The smart plant system can be installed in the farming or agriculture lands to continuously monitor the soil moisture and
pump the water to plants based on the moisture level. The user can check the temperature and humidity via mobile through
internet. These environmental parameters values are stored in cloud, so that the user can access those values through internet
whenever required at anytime.
2.1ALGORITHM
Input: Soil moisture sensor, DHT11 sensor, Ultrasonic sensor
Output: soil moisture values, Temperature and humidity measures, water level
NOTATIONS:
m Soil moisture
t Temperature
h Humidity
w Water level
th1, th2 Threshold values
The following steps are followed in automatic irrigation system.
Step 1: Begin the process.
Step 2: Check the Humidity and Temperature.
Step 3: Check the moisture level of the soil.
Step 4: If m>th1, then there is no need to pump water to plants
Step 5: If m<th1, then pump the water to plants.
Step 6: Check the water level in tank.
Step 7: If w<th2, then pump the water till it reaches the normal value.
Step 8: If w>th2, then there is no need to pump water to the tank.
Step 9: user can operate the system remotely through a mobile.
2.2 WORKING OF PROPOSED SYSTEM
The block diagram of the smart plant system is shown in the fig 1.1. In this paper we proposed the smart plant system which
is based on Internet of things that uses Arduino Uno and Ethernet shield. This Ethernet shield connects the Arduino Uno to
the internet in a few seconds which helps in the communication between the user and the smart plant system. This smart
plant system uses different sensors such as soil moisture sensor, temperature and humidity sensor, water level sensor etc.
Here we have used a relay board that electrically operate switch and provides electrical isolation between two circuits. The
user can monitor the plant health status and can take any necessary action using wireless sensor network through internet
irrespective of his physical location. The moisture sensor will be placed in the soil that sense the moisture level and sends the
related information to the user. If the moisture level is less than the predefined value then the user can pump the water to the
plants through internet using mobile. If the moisture level is more than the predefined value then there is no need to take the
further actions. The moisture level of the soil will be stored in the cloud; the user can access the values anytime using
internet. This smart plant system uses the ultrasonic sensor that checks the level of water in the tank.

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The water level status in the tank will be sent to the user. If the level of water in the tank is less than the predefined value,
then the user can switch ON the motor through internet using mobile. Once the water reaches the predefined value then the
user can switch OFF the motor through internet. The motor status will be sent to the user mobile. The temperature and
humidity values can be checked by the user in his mobile through internet and can pump the water to the plants depending on
the climate and moisture level in the soil. The temperature and humidity values, soil moisture values and level of water in the
tank will be stored in the cloud, so that the user can access anytime through internet.
Figure 1.1 Block Diagram of Smart Plant System
III. CONCLUSION
In this paper, we have proposed an automated system to monitor the temperature, humidity and moisture content in the soil
and supply the required quantity of water to the crops and plants. The system is tested for correctness and completeness by
executing the system with all possible input values
REFERENCES
[1].S.V. Devika , S.K. Khamuruddeen, S.K. Khamurunnisa, Jayanththota, Khaleshashaik “Android based automatic plant
watering system” october 2014, pp 449-456.
[2].S.Malge and K. Bhole, “Novel low cost remotely operated smart irrigation system” International conference on industrial
instrumentation and control(ICIC), 2015 pp. 1501-1505, IEEE 2015
[3].B.Khelifa, D.Amel, B.Amel,C.Mohamed, B.Tarek, “smart irrigation using internet of things” Fourth International
conference on future generation communication technology(FGCT), pp 91-96 IEEE 2015.
[4].Chandan kumar sahu and pramiteebehra, “A low cost smart irrigation control system”, IEEE sponsored 2nd
International
conference on electronics and communication systems (ICECS), 2015 00 1146-1152.
[5].Ayman M.Hassan, “Web based irrigation management for open canals using wireless sensor network” , conference on
wireless sensor (ICWISE) pp 102-107 IEEE 2013.
[6].A.Kumar, K.Kamal, M.O.Arshad, S.Mathallan and T. Vadamala, “smart irrigation using low cost moisture sensors and
xbee based communication” Global humanitarian technology conference (GHTC), IEEE 10-13 oct 2014.
[7].Y.Kimand R.G.Evans, “software design for wireless sensor based site – specific irrigation, “comput.Electron.Agricult.,
vol 66, no-2, pp 159-165, may 2009.
[8].M.Mancuso and F.Bustaffa, “TA wireless sensor network for monitoring environmental variables in a tomato
greenhouse”.
[9].Teemu Ahonen, Reino Virrankoski and Mohammed Elmusrati, “Greenhouse monitoring with wireless sensor network” in
university of Vaasa.

AN AMELIORATED METHODOLOGY FOR THE DESIGN AND IMPLEMENTATION OF SMART PLANT SYSTEM

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