Data Security and Data Dissemination of Distributed Data in Wireless Sensor Networks

M. Kowsigan et al. Int. Journal of Engineering Research and Application www.ijera.com
ISSN : 2248-9622, Vol. 7, Issue 3, ( Part -4) March 2017, pp.26-31
www.ijera.com DOI: 10.9790/9622- 0703042631 26 | P a g e
Data Security and Data Dissemination of Distributed Data in
Wireless Sensor Networks
M. Kowsigan1
, M.Rubasri2
, R.Sujithra2
, H.Sumaiya Banu2
1
Assistant professor, Department of Information Technology, Sri Krishna College of Technology, Coimbatore,
India
2
Department of Information Technology, Sri Krishna College of Technology, Coimbatore, India
ABSTRACT
A data dissemination protocol for wireless sensor networks has been engaged for modifying configuration fields
and circulating management controls to the mote. Earlier, a data dissemination protocol faces the henceforth two
consequences. First, they are works on sink based model; only the sink can circulate data item to other motes.
Such model is not suitable for large user wireless sensor networks. Second, those protocols are not provide with
any security and hence intruders will make problems to misuse the network. We provided the seDrip protocol. It
allows the network mentors to authorize multiple network uses with various permissions to simultaneously and
directly distributed data items to the mote. seDrip is implemented in an laboratory of network restricted
resources mote to depict its large capability in practice.
Index Terms: data security, seDrip, capability.
I. INTRODUCTION
Wireless sensor network is necessary to
change small codes or fields stored in the wireless
mote. These could be gained by the data
dissemination protocol, which facilities a sender to
insert small codes, commands and configuration fields
to mote. It varies from the code dissemination
protocol which circulates large binals to the entire
network of sensor nodes. Example, effectively
disseminating a binal files of kilobytes requires a code
disseminating protocol. When disseminating various
two-byte configuration field needs data dissemination
protocol.
Considering mote would be circulated in an
environment, remotely transporting such small
amount of data to the mote through the wireless
communication is mostly accepted and visual
approach than manual implementation. functional
requirement of such protocol, and said there design
objective. Also we found the authenticationissues in
existing data dissemination protocol.
II. A BRIEF LITERATURE REVIEW
There has been a large body of research on
WSNs in the literature. In the following, we outline
the research issues that have been actively pursued by
the researchers.
Pairing-based secure timing synchronization
for heterogeneous sensor networks: These papers
consider HSNs as a model for our proposed novel
time synchronization protocol based on pairing and
IBC. This is the first approach for synchronization
protocol using pairing based cryptography in HSNs.
The proposed scheme reduces the key space of mote
as well as it prevents from all security attacks.
TinyECC: A configurable library for ECC in
wireless sensor networks. This paper presents the
design and implementation of TinyECC, a
configurable library for ECC operations in WSNs.
The objective of TinyECC is to provide a ready-to-
use, publicly available software packages for ECC
based operations that can be flexibly configured and
integrated into sensor network applications. The
evaluation results show the impact of individual
optimizations on the execution time and resource
consumption and give the most computationally
efficient and the most storage efficient configuration
of TinyECC.
Monitoring heritage buildings with WSNs:
The Torre Aquila deployment:It shows that our
system is an effective tool for assessing the tower's
stability, as it delivers data reliably (with loss ratios
less than 0.01%) and has an estimated lifetime.
DiCode: DoS resistant and distributed code
dissemination in WSNs.This paper develops a secure
and distributed code dissemination protocol named
DiCode. A salient feature of DiCode is its ability to
resist denial of service attack which have severe
consequence on network availability. Performance
analysis wireless OCDMA systems had been done in
[12]. Further, the security properties of our protocol
are demonstrated by theoretical analysis.
Secure data discovery based on hash tree for
wireless sensor networks:This paper identifies the
security problems in data discovery and dissemination
when used in wireless sensor networks. An efficient
job scheduling was implemented and it performs
useful task regarding to the wireless sensor networks
[10][11]. Such problems allow an adversary to update
a network with undesirable values and erase critical
RESEARCH ARTICLE OPEN ACCESS

variables or launch denial of service (DoS) attacks. To
address these attacks this paper presents the design,
implementation and evaluation of secure, lightweight
and DoS resistant data dissemination protocol named
diDrip for WSNs.
III. PROPOSED SYSTEM
To protect wireless sensor networks from
security issue, we introduce an improved filtering
technique. Those techniques make them not only
collision robust but also more accurate and faster
converging. In our proposed work we increase data
level security by introducing asymmetric key
encryption. Using RSA algorithm we provide security
in data. The suggested protocol is efficient in a multi-
scale WSN.Distributed seDrip, which permits the
network mentors and authenticated users to distribute
data items into WSNs without depending on the sink.
Our dedicated analysis states that SeDrip will satisfy
the authentication needs of the protocols of this kind.
In particular, we applied some of the algorithms to
provide the authenticity and integrity of the
disseminated data items in SeDrip.
IV. WIRELESS SENSOR NETWORK
A wireless sensor network contains a
circulated independent mote to analyze physical
conditions such as environment, noise, pressure to co-
operatively send their informationpasses by the
network to a particular location. The present networks
are bi-directional and also controls the sensor activity.
The development of WSN were developed in
inspirationwith applications used in military increased
fields [7]. Now-a-days WSNs are employed in several
industries and commercial applications.
A.Routing In Wireless Sensor Network
In connect with many recent technological
advancements, the evolution of a very small and low
cost sensors became possible. The sensing electronics
measures the medium conditions in relation with the
environment surrounding the mote and converts them
into an electric signal. Processing such signals shows
few properties about information located and things
happening around of the mote. Genetic algorithm was
used as one of the tool for routing the jobs in cloud
[14].These motes have the capability to transmit
among each other or to an external sink. A great
number of sensor motes allows for sensing over a
large area with a greater exactness.
Few years back, an exhaustive research that
labels the potentiality in association with sensors in
data gathering, data handling activities were
conducted. Motes are confined in the energy
distribution and in the bandwidth. Thus, innovative
techniques removes energy incompetent that could
shorten the life of the network are largely required.
Such confined combining with an assessing of huge
number of mote pose various issues to the develop
and manage the wireless sensor networks at all layers
of the networking protocol stacks.
Routing in wireless sensor networks is
demanding the inherent characteristics that distinguish
the networks from external wireless networks such as
mobile ad hoc networks or cellular networks. Due to
the many of the motes, building a global level
addressing scheme is not possible for the evolvation
of nodes in sensor network as the overhead of ID
maintenance is high.
Fig 1: Wireless Sensor Network
B.Multi-Path Routing Protocols
We examine the routing protocols which
uses multiple paths rather than a unidirectional way in
account to enhance the network’s performance. The
fault tolerance of a protocol is evaluated by the
probability of a different path existing between a
sender and a receipt when a primary path fails. These
alternative paths are kept active by passing repeated
information. Hence, the network authenticity can be
enhanced at the cost of enlarging overhead of
retaining the alternative paths. Handling spread is a
good for powerful multi-path routing. Ground of the
handling spread function, a multi-path routing
protocol that finds a various slightly separated paths.
It found that the application of multi-path routing
protocol provides viable alternate for energy efficient
recovery from failures in a wireless sensor networks.
The motivation of using these to retain the expense of
supervising each and every other paths low.
V.INTRODUCTION TO NETWORK
NS2 is a simulation tool aiming at both the
local and the satellite networking research. Network
Simulator is a very promising tool which is being
used by scholars and universities. We provided
information in steps to setup NS2 on UNIX. Then we
have scrutinized how to implement NS2 to simulate
limited and wide area networks. We discussed both
the methods. Multimodal Personal Authentication
with Fingerprint, Speech and Teeth Traits using SVM
Classifier [13]. Finally, the methods to animate uses
NAM and to analyze it uses X graph / GNU picture
the simulation results are presented.

NS, a separate event simulator at the network
research is used in companies by scholars and
universities. Network Simulator provides background
needs for simulation of transmission control protocol,
multi-cast protocols, and routing over limited and
wide area networks. It deploys network protocols such
as file transfer protocol and Telecommunication
network, routing algorithms such as DV and SPF.
A simple way NS2 could be applied to study
the characteristic of a well-known protocol. A script
language OTcl is employed to glue the network
components such as nodes, links, agents, applications,
etc which are provided by NS2, configure the
parameters such as band-width, delay, routing
protocol, etc and launch activities (data transfer,
topology change, etc). NS2 will read the
configurations; simulate the network event and record
event and statistics in to the trace files. After the
simulation, Nam method can demonstrate the events
in a visualized way.
VI. NETWORK FORMATION AND
COMMUNICATION IN WSN
In this module designing of complete WSN
will be done and the number of Mote, cluster node
and gateway node and then interrelate them to form
the network. Once, designing of Wireless Sensor
Networks is completed, and then the next step is to
have the communication between each node [9]. The
communication in the sense there will be transmission
of the data amongst different motes in the network.
The proposed module will emphasize on distribution
of data security and dissemination protocols and the
functional requirements of such protocols, it sets their
design objectives [15]. It identifies the security
problems in predefined data dissemination protocols.
The communication in the sense there will be
transmission of the data amongst different motes in
the network. The module is a RSA asymmetric key
algorithm.RSA is the leading in the known general
service asymmetric key algorithm. This had been
created by Rivest, Shamir & Adleman of MIT. It is
depend on exponentiation in a known range over
integers modulo a prime, using huge integers leads up
to 1024 bits. Its security is due to the amount of
factorizing huge numbers. In RSA algorithm, to
encode a plain text P the sender should obtains
asymmetric key of receiver PU={s, r} and by using
that computes cipher text T = Ps
mod r, where 0≤P<r
to encode the plain text. To find decoding key k
applied the following equation s.k=1 mod ø(r) and
0≤k≤r.After those steps publish their asymmetric
encoding key, PU={s, r} and keep secret private
decoding key, PR= {k, r} in source and destination
side.For this algorithm to be satisfactory for
asymmetric key encoding, it must be possible to find
values of k, s, r such that Ps
k mod r = P for all P < r.
We need to find a relation of the form Pkd mod r = P.
The preceding relation stands if s and k are inverse
multiplication mod ø (r), where ø (r) is a totient
function. This is the straight reaction of Euler’s
function, so that taking a number to power s then k or
vica versa produces the original number.
VII. SECURITY ANALYSIS
In the following, we will analyze the security
of seDrip to verify that the security requirements. To
pass the verification of mote, each user has to submit
the secrete key and the dissemination permissions to
the network provider for registration. Authorized
users are capable to process data dissemination in a
circulated manner with a Support of various user
permissions [6]. Activities of users in a network can
be restricted by setting user permission Prij, which is
included in the user certificate. Since each user
certificate is created based on Prij, it will not pass the
verification at mote if Prij is modified. Thus, only the
network mentors can modify Prij and then updates the
certificate accordingly to provide authenticity and
integrity of the data items. With the RSA Algorithm,
an authorized user signs the data into SHA(Secure
Hash Algorithm) with their secrete key [3]. Using the
network provider’s asymmetric key, each mote can
validate the user certificate and obtains the user’s
asymmetric key. Then, using the user’s asymmetric
key, each mote can validate the data packet received
and other data packets regarding Secure Hash
Algorithm. With the assumption that the network
provider cannot be compromised, it is guaranteed that
all forged or modified data items can be very simply
founded by the authentication process. User
accountability, Users identities and the data
dissemination activities are exposed to wireless sensor
nodes. Thus, the mote can report such records to the
network provider periodically. Since each user
certificate is created regarding to the user id, except
the network provider, no one can modify the user
identity specified in the user certificate which will
pass the authentication. Therefore, the users should
not repudiate their activities, Node compromise and
user collision tolerance. As described above, for basic
the protocol, only the asymmetric arguments are
preloaded in each and every node. Also for the
enhanced protocol, the dissemination-privilege set of
a network user is loaded into the mote. Therefore, not
important how many number of mote are being used,
the adversary just obtains the asymmetric arguments
and the dissemination- privileged set of a user. The
intruder does not make any issue by compromising
mote. A few users conspire; a benign node will not
permit any dissemination privilege that is beyond
those of conspiring users. This property Resistance to
DoS(Denial-of-Service) attacks. There are Denial-of-
Service attacks takes upon basic Data dissemination
protocol by exploiting the authentication delays,
signature verifications and the Trickle algorithm [1].

First, by applying Secure Hash Algorithm, each mote
can efficiently validate a data packet by a few hash
operations. Second, using the 160 bit message digest
we can securely transfer data in a efficient manner[8].
Therefore, all the above DoS attacks are defended.
SeDrip can successfully defeat all three types of
Denial of services attacks with a presents of a
compromised network users and mote. Without
knowing the secret key and the asymmetric keys of
the network users, even an inside attacker cannot
forge any data packets with ensure of freshness[4].
Thus we will consider how to implement data
confidentiality in the model of secure seDrip and RSA
algorithm. This system will maintain the data integrity
also to ensure the performance of the system[5]. Here
we can conclude that the proposed system will
provide the high security. Then by applying energy
efficient SHA algorithm we will encode and decode
the plain text for the security purpose. We applied
SHA and RSA algorithm to represent a security
process for wireless sensor networks which is simple
to implement as well as impossible to break. In this
research we are simply going to provide secure
communication, but we will also reduce the energy
inefficiencies by providing gateway nodes, which will
make the system much more protected and reliable.
This will provide us a high security to the wireless
sensor network by detecting and sending secrete data
to the recipient only from a source by applying
authentication on data[2].
VIII. SYSTEM REQUIREMENTS
To be utilized productively, all PC
programming needs certain apparatus segments or any
programming assets to be available on a PC. These
are known as PC framework essentials and are
simultaneously applied as a procedure instead of a flat
out standard. Many programming uses least and
prescribed arrangements for framework precondition,.
With enlarging interest for higher handling force and
belonging in more up to date variants of
programming, framework precondition tend to
increment after some time. Industry examiners
recommend that this pattern have affected largely in
propulsive moves up to existing PC frameworks than
inventive progressions.
A.Software Requirements
 Operating system : Linux ( Ubuntu )
 Software : Network Simulator 2.35
 Coding : TCL, AWK, C++
B.Hardware Requirements
 Main processor : Dual Core
 Hard disk capacity : 60GB
 RAM memory : 4 GB
IX. IMPLIMENTATION DETAILS
seDrip mainly includes five steps to
disseminate the data between the motes among the
wireless sensor network. Figure2 depicts the structure
of secure SeDrip, which shows the dissemination of
data from source to destination through the authorized
users only. where it contains the following
mechanisms:
 Network mentors
 Authorized users
 Mote
Advantages
 Applicable for multi-owner with multi-user WSNs.
 Identified the security issues in data dissemination
protocol when used in WSNs.
Fig 2: Structure of secure seDrip
SeDrip consists of four phases, data model,
user entering, and packet validation and packet
verification. seDrip protocol, in data modeling part,
the network mentors gets their asymmetric and
symmetric keys, and then place the public arguments
on each mote before the network deployment. In user
enter part, a user gets the disseminated data authorize
through registering to the network mentors. In packet
validation part, a user registered and wants to
dissemination some data, they required to create the
data dissemination packets and then send them to the
mote. In packet verification part, a mote verifies every
accepted packet. If the result is positive, it updates the
data related to the accepted packet. After a wireless
sensor network (WSN) is utilized, there is normally
required to update old small programs or parameters
stored in the mote. This could be carry out by seDrip,
which request a source to insert small codes,
commands, controls, and configuration fields to mote.
For modifying configuration arguments distributing
management commands, data dissemination protocol
is important.

A.Simulation Design Model
Fig 3: Network model
Fig 4: Secure data dissemination
X.CONCLUSION AND FUTURE WORK
This paper proposed the data dissemination
protocol for distributed data in wireless sensor
networks. This addresses the drawbacks associated
with sink based approach of data dissemination. Also
the security problems which were the main faults to
be concerned in earlier approaches are addressed here.
This paper provides data authentication by a secure
hash function.Data integrity is provided using RSA
asymmetric algorithm which is a strong encryption
technique. As a future enhancement, additional
security measures like data confidentiality can be
added and efforts are taken to reduce the memory and
energy overheads.
REFERENCES
[1]. He D, Chen C, Chan S, Bu J. DiCode: DoS-
Resistant and Distributed Code
Dissemination in Wireless Sensor Networks.
Wireless Communications, IEEE
Transactions on 2012; 11(5): 1946-1956.
[2]. Perrig A, Canetti R, Tygar JD, Song, D.
Efficient authentication and signing of
multicast streams over lossy channels.
Security and Privacy, 2000.S&P
2000.Proceedings. 2000 IEEE Symposium
on 2000;.56-73.
[3]. Levi A, Savas E. Performance evaluation of
public-key cryptosystem operations in
WTLS protocol. Computers and
Communication.(ISCC 2003).Proceedings.
Eighth IEEE International Symposium on
2003; 2: 1245-1250.
[4]. Sun Z, Ma Y. Copyright protection of
multimedia content using homomorphic
public key cryptosystems. Communications
and Networking in China. ChinaCOM 2009.
Fourth International Conference on 2009; 1-
4.
[5]. Rahman M, El-Khatib K. Secure Time
Synchronization for Wireless Sensor
Networks Based on Bilinear Pairing
Functions. Parallel and Distributed Systems,
IEEE Transactions on 2010; 99: 1.
[6]. He D, Chan S, Tang S, Guizani M. Secure
Data Discovery and Dissemination based on
Hash Tree for Wireless Sensor Networks.
Transactions on 2013; 12(9): 4638-4646.
[7]. Ceriotti M, Mottola L, Picco GP, Murphy
AL, Guna S, Corra M, Pozzi M, Zonta D,
Zanon P. Monitoring heritage buildings with
wireless sensor networks: The Torre Aquila
deployment. Information Processing in
Sensor Networks. International Conference
on 2009; 277- 288.
[8]. He D, Chen C, Chan S, Bu J. DiCode: DoS-
Resistant and Distributed Code
Dissemination in Wireless Sensor Networks.
Transactions on 2012; 11(5): 1946-1956.
[9]. Tolle G, Culler D. Design of an application-
cooperative management system for wireless
sensor networks, Wireless Sensor Networks
2005.
[10]. M. Kowsigan, P. Balasubramanie, An
Improved Job Scheduling in Cloud
Environment using Auto-Associative-
Memory Network, Asian Journal of Research
in Social Sciences and Humanities, Vol. 6,
No. 12, December 2016, pp. 390-410.
[11]. M. Kowsigan, P Balasubramanie,
Scheduling of Jobs in Cloud Environment
using Soft Computing Techniques,
International Journal of Applied Engineering
Research, ISSN 0973-4562 Vol. 10 No.38
(2015).
[12]. A. Jameer Baasha, R. Kanmani, Performance
Analysis of Wireless OCDMA Systems
Using PC OOC, EPC Codes, Asian Journal
of Information Technology, Vol 15, No.12,
pp.2087-20938.
[13]. A Jameer Basha, V Palanisamy, T
Purusothaman, Multimodal Personal
Authentication with Fingerprint, Speech and

Teeth Traits using SVM Classifier, European
Journal of Scientific Research, Vol.6, No. 3,
pp.463-473.
[14]. M. Kowsigan, S. Rajkumar, P. Seenivasan,
C. Vikramkumar, An Enhanced Job
Scheduling in Cloud Environment using
Improved Metaheuristic Approach,
International Journal of Engineering
Research & Technology, Vol.6. No. 2, 2017
[15]. Lavanya. G, Pandeeswari. S, Shanmugapriya.
R.K, Fuzzy Bases Interference Reduction in
Cognitive Networks, International
conference on advances in computing, Vol.
174, pp 1061- 1068, (2012).

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