Integrated Framework for Secure and Energy Efficient Communication System in Heterogeneous Sensory Application

International Journal of Electrical and Computer Engineering (IJECE)
Vol. 9, No. 4, August 2019, pp. 2695~2702
ISSN: 2088-8708, DOI: 10.11591/ijece.v9i4.pp2695-2702  2695
Journal homepage: http://iaescore.com/journals/index.php/IJECE
Integrated framework for secure and energy efficient
communication system in heterogeneous sensory application
Yogeesh A.C.1
, Shantakumar B. Patil2
, Premjyoti Patil3
, Roopashree H.R.4
1
Department of Computer Science and Engineering, Nagarjuna College of Engineering and Technology, India
2
Department of Computer Science and Engineering, Nagarjuna College of Engineering and Technology, India
3
Department of Electronics and Communication, Nagarjuna College of Engineering and Technology, India
4
Department of Computer Science and Engineering, GSSS Institute of Engineering and Technology for Women, India
Article Info ABSTRACT
Article history:
Received Aug 24, 2018
Revised Dec 17, 2018
Accepted Mar 11, 2019
Irrespective of different forms and strategies implementing for securing
Wireless Sensor Network (WSN), there are very less strategies that offers
cost effective security over heterogeneous network. Therefore, this paper
presents an integrated set of different processes that emphasize over secure
routing, intellectual and delay-compensated routing, and optimization
principle with a sole intention of securing the communication to and from the
sensor nodes during data aggregation. The processed system advocates the
non-usage of complex cryptography and encourages the usage of probability
their and analytical modelling in order to render more practical
implementation. The simulated outcome of study shows that proposed
system offers reduced delay, more throughputs, and reduced energy
consumption in contrast to existing system.
Keywords:
Cost effectiveness
Energy Consumption
Optimization
Security
Wireless Sensor Network Copyright © 2019 Institute of Advanced Engineering and Science.
All rights reserved.
Corresponding Author:
Yogeesh AC
Research Scholar, Department of Computer Science and Engineering,
Nagarjuna College of Engineering and Technology,
VTU, Belagavi, Karnataka, India
Email: yogeesh13@gmail.com
1. INTRODUCTION
The upgrading in the micro-electro-mechanical systems with digital electronics and network
communication technologies have made possible to employ low cost, automated and intelligent device for
different qualities of purposes in both indoor application and outdoor application [1]. This device is capable
with sensing task and performs communication through a wireless channel, and it is popularly known as
WSN (wireless sensor network). Therefore, WSN is a collection of several sensors latched with tiny nodes
that perform together various operations such as environmental sensing, data collection and processing,
and performs communication among other sensor nodes through radio link transmission frequency [2].
The nodes in WSN are miniature and also called as motes which consist of a micro-control device,
transistors and equipped with the fixed battery source. The objectives of sensors are to sense the event
(temperature, humidity, air, soil quality and object) occurred in the region of interest and therefore nodes
perform further data processing and communication processes as per application requirement [3].
Furthermore, the sensor nodes are resource constraints (limited energy, limited processing capacity, fixed
storage and limited sensing range) in nature due to its low cost and small size structure. Nowadays, WSNs
are highly taken in remote applications that employed by several industries and organisation such as forest,
healthcare organisation for patient monitoring and elderly care, government and military application for
surveillance, security, and target tracking, home automation, weather forecasting, home, school, office for
monitoring purposes and also it utilizes in industrial application for automation and control processes [4].
Although, the WSN application is mostly based on the real-time data information and due to its resource

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Int J Elec & Comp Eng, Vol. 9, No. 4, August 2019 : 2695 - 2702
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constraints nature, its open numbers of security challenges towards itself. Usually, WSNs are highly
deployed in a hostile environment and left to be alone which makes it vulnerable to several attacks.
Various researchers have discussed the issues related with WSN security [5-7] and proposed several
different security solutions to preserve its privacy and to provide robust protection with considering its
resource limitations [8-10]. Hence, providing an energy efficient security mechanism in WSN is not a simple
job. Therefore, there is a need of optimal security approach that keeps WSN secure, reliable, long life
functioning, and preserve from the various attacks. This paper presents a discussion of novel solution that is
meant for balancing the security demands as well as energy related demands of wsn. Algorithm is briefd in
Section 2 while result is discussed in Section 3 and summary in Section 4.
This section presents state of the art in the domain of WSN security for realizing the current status
of progress in WSN applications. The work taken in the study of Illiano et al. [11] have considered the
problem of malevolent data insertion in the WSN and presented an optimization algorithm to improve the
event detection operation and to enhance the efficiency of anomaly detection in WSN. The work carried out
by Mohindru, and Singh [12] came out with the energy efficient node validation algorithm based on the
cryptographic concept to detect the node replication attacks and prevent WSN from other node compromised
attacks. By considering resource constraint property of sensor nodes the work of Poriye and Upadhyaya [13]
have offered a new security scheme based on the DNA cryptography technique and secures socket layer
protocol to increase the level of sensor node security in WSN.
Venkatraman and Kumar et al. [14] have presented a smart control system based on a distributed
system of automation concept to secure the whole network from malicious attacks, to improve data reliability
and to enhance the overall performance of sensor network. Movassaghi et al. [15] presents a spectrum
allocation dependent novel interference mitigation approach for wireless body area network in order to
improve its QoS. Li et al. [16] have analyses some existing authentication techniques that carried for real-
time WSN application. The findings of the presented investigation show that the current techniques are still
in a critical phase that suffers from data loss attack and less user anonymity and friendliness. The work of
Chen et al. [17] have invented an advanced, intelligent and reliable routing protocol based on opportunistic
routing technique to achieve higher accuracy data transmission within a fixed interval of time for Cyber-
physical system WSN.
Singh et al. [18] have utilized the concepts of Fuzzy system and neural network and developed an
enhanced hybrid interference detection system to identify the different types of attacks and to become aware
of compromised nodes in the WSN. Zhang et al. [19] uses Elliptic Curves Cryptography technique for key
exchange protocol anonymously in the WSN. The experimental outcomes show that the presented technique
achieves better security mechanism, but it has a disadvantage that it consumes higher energy. Tian et al. [20]
have introduced a modified version of mixed integer and nonlinear programming and gave a joint approach
of full duplex and security by considering cross-layer optimization to improve the energy utilization,
spectrum efficiency and to enhance the security level. Alves et al. [21] have argued that SDN (Software
defined network) have the capability to provide better flexibility in WSN. The authors have presented an
SDN based model to handle node deployment and efficient distribution of a symmetric key.
Zhang et al. [22] constructed an Intrusion detection system based on self-adaptive and active trust
threshold mechanism to detect malicious behavior and to control overhead problem in WSN. Zhu et al. [23]
have presented an overview of physical layer security in IWSNs to point out some challenges and essential
requirements to improve both security and IWSN overall performance. Rana [24] has presented a distributed
estimation technique for controlling cyber attacks and stabilization technique for controlling packet loss in
the electric vehicles. Kumar et al. [25] focused on the issue related with secure localization of sensor nodes
and presented a secure localization algorithm to protect the sensor nodes from the outsider attack and as well
as it also monitors the insider node to detect compromised node in the network. Faisal et al. [26] have created
a novel scheme based on receive signal strength mechanism to counter the identity replication attack on the
IEEE 802.11 based wireless ad-hoc network.
The work carried out by the Liu et al. [27] have presented an improved distributed estimation
technique based on least mean square algorithm to tackle the problem of secure estimation over WSN under
the presence of attacks. Nurellari et al. [28] presents, a reliable scheme to investigate the compromised nodes
and to control their behaviors toward the data fusion process. Tayebi et al. [29] have given an improved
chaotic based direct sequence spread spectrum (DSSS) technique in order to enhance the security of chaotic-
DSSS dependent WSN. The work carried out by Shen et al. [30] uses Id-based aggregation signature
technique for improving the security level of data integrity in WSN. The experimental effects display that the
presented method achieves provides excellent protection as well as it minimizes storage cost and reduces
bandwidth. Naik and Nayak [31] have presented its involvement by demonstrating classifications of
predictable cost-estimation methods and after that investigates the investigation trends towards commonly
addressed issues in it. Kulkarni et al. [32] have illustrated a real-time design of effective examining and

Int J Elec & Comp Eng ISSN: 2088-8708 
Integrated framework for secure and energy efficient communication system… (Yogeesh AC)
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control of grid power technique by using the remote cloud server. This study also focused to use the remote
cloud server to fetch, examine as well as control the real-time energy method data to enhance the worldwide
control and reply time. Benslimane and BenAhmed [33] have introduced a novel lightweight key
management procedure which permits the inhibited node into the 6loWPAN network to transmit captured
data to internet host in the secure channel. The next section discusses about the problems associated with the
strategies introduced in the existing system.
The significant research problems are as follows:
1. Existing studies considers security implementation without considering various energy-related factors that
doesn’t offer energy efficiency.
2. Existing solutions for security are more inclined towards specific forms of attack in WSN and hence the
solution has very less scope of implementation towards other attacks.
3. Existing solutions are incapable of identifying the form of the malicious intention incorporated within the
routing request that fails to identify the degree of vulnerability.
4. There is no much discussion of the optimization technique within the sensor network that could offer a
good retention of energy and more resistivity against the routing principle.
Therefore, the problem statement of the proposed study can be stated as “Developing a secure,
intellectual, and optimizated routing principle in WSN is one of the most computationally challenging
task”. The next section briefs of the solution against such problems
This part of the proposed study is a continuation of prior work [34]. The proposed system targets to
offer higher degree of secure communication system with equal emphasis on energy efficiency. The complete
proposed system is classified into three processes that emphasize on incorporating secure routing, intellectual
routing, and optimization process. Figure 1 highlights the proposed implementation plan.
SecureRouting
Process
Intelligent
RoutingProcess
Optimization
Process
Key Generation
Validating Cluster Key Node Mobility
Public Key Encryption
hashing
decryption
Novel Control Message
Formulation
Authentication System
Delay Computation
Delay CompensationObjective Function
Attack-Behaviour Capturing
Route managment Malicious request identification
Divert malicious request
Figure 1. Effects of selecting different switching under dynamic condition
Referring Figure 1, the first process refers to addressing non-usage of conventional cryptographic
scheme in order to introduce a simple hashing-based encryption along with dynamic key management.
The second process refers to address the problems associated with symptomatic solutions towards similar
attacks in WSN. It ensures that irrespective of any forms of attack, the proposed system offers to identify and
compensate delay factor that generates intrusion. The final process of optimization is carried out using a very
simple approach of identifying the malicious request and barring them from joining the network.
The prominent contribution of the proposed system is its usage of simple and cost-effective approach to offer
security and energy efficiency. The next section discusses about the system design elaborating more about
the design principles.
2. SYSTEM DESIGN
Incorporating a security scheme in WSN is not a simple task as can be seen from various existing
research approaches till date. The prominent problem of existing security approaches are that they are less
practical and highly theoretical while the route cause of this problem is one i.e. design doesn’t consider
various essential and comprehensive factors that are directly linked to security performance.The development

 ISSN: 2088-8708
2698
of the proposed logic is carried out on the basis of the multiple integrated processes in order to retain
maximum level of security over the communication process in WSN. The discussions of the different
processes are as follows:
2.1. Secure routing process
This process implements a graph theory where probability logic is incorporated for ensuring robust
authentication scheme along with energy efficiency considering the case of heterogeneous WSN. This is the
first process module that emphasizes on an effective generation of key, dynamic mobility of the sensor, and
authenticates the cluster key. The mechanism for key generation is responsible for generating a secret key in
such a way that even of this secret key is stolen it will be of no use for the attacker. Referring to Figure 1,
this module introduces a communication model considering cluster head, member node, and base station.
The security aspects of this process use simple public key encryption that uses simple pseudorandom number
generation method to generate a secret key of public type while private key is obtained by splitting.
This operation has a significant advantage to incorporate both forward and backward secrecy. Another
important part of this design principle is that it offers increasing layer of encryption using very lightweight
mechanis of hashing. The mechanism of the mobility is associated with randomly positions within the
simulation area. This phenomenon will mean that there is never a defined pattern of movement.
This mechanism is constructed using simple hashing and usage of pseudorandom numbers.
The next process is all about authencating cluster key that is essentially meant for validating a
cluster head. According to this mechanism, any information associated with the victim sensor (i.e. cluster
head) is forwarded to the neighboring sensors as an update that is further spread until and unless it reaches
the last node present in the network. In this process, the forwarding sensor transmits a beacon bearing the
information of compromised node (that could be either cluster head or member node or both). This message
is subjected to decryption by the clusterhead and the information associated with this decryption is updated
by both cluster head as well as its member node. The authentication is carried out by checking the presence
of decrypted key within the neighboring sensors that confirms that there is a presence of used (or malicious)
key and hence that specific key is discarded or else it is considered. An interesting fact to observe is that
proposed process doesn’t include any form of complex cryptographic mechanism other than usage of hashing
and pseudorandom operation, which is very much lightweight and doesn’t include more memory or
processing capability within the sensor to execute them for invoking the security features. Shows in Figure 2
design principle of secure routing process.
2.2. Intelligent routing process
The first process is responsible for carrying out initial operation of authentication for ensuring
secure routes; however; it needs more behavioural information for boosting up its security features.
Hence, this second process implements a novel mechanism of inter-arrival time to investigate its necessary
impact over the security feature. The backbone of the proposed system is controlled using a novel form of
control message that uses three forms of message i.e. i) first message for generating beacons, ii) second
message for broadcasting beacons, and iii) third message for authenticating beacons. The next action
considered in this process is linked with the computation of the delay which is meant indirectly to control any
form of network as well as computational overhead owing to the authentication mechanism dicussed in the
first process. This process also introduces a novel and simple objective function that is responsible for
minimizing the energy consumption, which will mean that amount of energy allocated will be checked for
single and double hops as well as size of packets. If an allocated energy is found to be surplus as compared to
the genuine energy required than surplus energy will be minimized. However, this process doesn’t occur
frequently. Hence, if the energy is found devoid of having surplus amount that the proposed system looks for
an alternative secured link with lesser inter-arrival time. This operation not only assists in positively leading
all the packets in safer routes but also minimizes any form of possible delays. Hence, the delay factor is
compensated at the end at any cost in this model. Therefore, this process acts as complementary to the first
process of secure routing scheme. Shows in Figure 3 design principle of intelligent routing process.
2.3. Optimization process
The prime problem to be addressed in this phase of the work is to identify and resist the type of
attack that tampers the programmes embedded in the commercial sensor application. Usually, commercial
sensor applications are highly prone to various forms of unknown and anonymous service request from the
adversarial node. Such adversarial nodes are quite hard to be identified and thereby it is difficult to capture/
encapsulate the adversary. The complete basis of this part of the study is a new adversarial module which has
the potential to access and control the programming object of the sensor node that finally leads to physical
node capture. However, the scope will be only limited towards capturing programming object by the

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malicious node and how the proposed system resists it. The study will use similar communication model used
in prior section but will introduce a novel adversarial model. The study will apply analytical modelling
approach with formulation of a programming object. An authentication module will be developed which will
be responsible for authenticating the challenge generated by the node. After the authentication is carried out
by the node, the next step will be to apply probabilistic data structure in order to securely store the
programming object of a sensor node. This phenomenon is a type of novel sandboxing mechanism that any
sensor node will be using in order to secure checks the legitimacy of the incoming route request. In case of
legitimate request, a secure route will be established; however, in case of illegitimate request, the sensor node
is still safe as any change the programming object invokes to sandbox renders instantly the forced damage of
the data structure and a new probabilistic data structure is developed. Before, forwarding the secured routing
information, the mechanism also checks for the probability of the true positive or negative in the notification
generated from the sandboxing mechanism. This will be carried out in order to perform a second check on
the validity of the notification about the malicious node. A novel optimization policy will be then constructed
which will use an extremely lightweight cryptographic module without an extensive recursive operation in
order to have better suitability with the real time sensor operation. Finally, the system will perform filtration
for the legitimate and illegitimate task from the requestor node. Shows in Figure 4 design primciple of
optimization process.
Figure 2. Design principle of
secure routing process
Figure 3 Design principle of
intelligent routing process
Figure 4. Design principle of optimization process
3. RESULTS ANALYSIS
The implementation of the proposed system is carried out using MATLAB over normal system
configuration using 1000 x1200 m2 simulation area with 100 sensors. The complete analysis is carried out
with respect to outcome of each phase to exhibit its potential capability of offering security and reducing
energy dissipation.

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Figure 5. Analysis of overall energy consumption Figure 6. Analysis of overall energy consumption
Figure.5 and Figure.6 is a comparative analysis of secured routing process where the proposed
system is shown to be compared with the existing energy efficient LEACH algorithm. The study outcome
shows that proposed system over quite low rate of energy consumption as well as higher throughput with
increasing number of simulation rounds. The outcome shows that the proposed system also offers a
significant scalability in its performance while offering security of higher. The prime reason behind this
outcome is that proposed system discussed in secured routing process doesn’t use any form of potential
encryption or any other form of iterative principle that makes the operation quite faster resulting in lesser
energy consumption and higher throughput. LEACH algorithm fails to do so as they offer good energy
efficiency but their clustering operation is based on centrality principle which is non-practical.
Figure 7. Analysis of residual energy Figure 8. Analysis of delay
Figure.7 and Figure.8 is a comparative analysis of proposed system with secured-LEACH [35]. It is
because of the reason that this algorithm is the only standard conventional algorithm that claims of
incoporrating key management for security and hierarchical clustering for energy efficiency. All the activity
carried out by proposed system is mainly related to checking the control messages for searching the nodes
and controlling topology. Based on this, every routing and accessibility decision is undertaken by the sensors.
With increasing simulation, the network gains more information owing to presence of auxiliary nodes which
is responsible for lowering the network overhead. Moreover, usage of probability parameter further assists in
faster computation and lower iterative operation that results in very slower pace of energy consumption for
proposed system. However, SecLeach is not found to offer much resistivity against energy drainage and
hence it shows faster degradation of energy thereby reducing the network lifetime in WSN. It was also seen
the complete processing time of proposed system is 85% faster as compared to the existing approach. Hence,
proposed system offers better energy efficiency over increased period of time. The complete implementation
techniques show that proposed system offers enhanced security operation and is resistive against all major
forms of threats irrespective of their specific adversarial behaviour.

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4. CONCLUSION
The paper presents a discussion of a solution that is meant for offering practical security features
within resource constraint sensors. The significant contribution of the proposed system are as follows: i) The
proposed system offers approximately45% increased throughput as compared to existing secured and
hierarchical energy efficiency protocols, ii) the applicability of proposed system is more on heterogeneous
network while majorty of the existing security solutions are only directed towards homogeneous WSN, iii)
the proposed system can successfully reduce the energy consumption and increase the network lifetime to
more than 67% in contrast with existing system, and iv) proposed system offers capability to identify and
resist malicious request and hence they are capable of resisting majority of attacks and hence the solution is
not attack specific.
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BIOGRAPHIES OF AUTHORS
Yogessh A.C. has completed B.E (CS&E) in 2006 from VTU, Belagavi, Karnataka, India. I have
done M.Tech (CS&E) in 2008 from VTU, Belagavi, Karnataka, India. Presently He is pursuing his
PhD from Nagarjuna College of Engineering & Technology, Karanataka, India, VTU, Belagavi,
Karnataka, India. He has around 7 years of teaching and 4 years of industrial experience. His areas of
interest are Wireless Sensor Network, Adhoc Network.
Shantakumar B. Patil has completed B.E in 1993 from karanataka University, Dharwad and M.Tech
from VTU, Belagavi, Karnataka, India. He has completed his PhD from Dr. MJR Eductioanl &
Research Institute University, Chennai, India in 2011.Presently He is workingas as a professor in
Department of CSE at Nagarjuna College of Engineering & Technology, Karanataka, India.
Premjyoti Patil has completed B.E in 1994 from Gulbarga University, Gulbarga and M.E from
Gulbarga University, Gulbarga, India. She has completed his PhD from Dr. MJR Eductioanl &
Research Institute University, Chennai, India in 2012.Presently She is workingas as a professor in
Department of Electronics & Communication at Nagarjuna College of Engineering & Technology,
Karanataka, India.
Roopashree H.R. has completed B.E (E&C) in 2006 from VTU, Belagavi, Karnataka, India. She has
done M.Tech (CS&E) in 2012 from VTU, Belagavi, Karnataka, India. Presently She has complted her
PhD from CHRIST (Deemed to be University) Bengaluru, Karanataka, India. She has around 12 years
of industrial experience. Presently working as a Senior Associate TRM at Publicis.Sapient at
Bengaluru, Karnataka, India.

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