Balancing Trade-off between Data Security and Energy Model for Wireless Sensor Network

International Journal of Electrical and Computer Engineering (IJECE)
Vol. 8, No. 2, April 2018, pp. 1048~1055
ISSN: 2088-8708, DOI: 10.11591/ijece.v8i2.pp1048-1055  1048
Journal homepage: http://iaescore.com/journals/index.php/IJECE
Balancing Trade-off between Data Security and Energy Model
for Wireless Sensor Network
Manjunath B. E.1
, P. V. Rao2
1
Dept. of ECE, Jain University, Bangalore, India
2
Dept. of ECE, VBIT, Hyderabad, India
Article Info ABSTRACT
Article history:
Received Sep 7, 2017
Revised Jan 6, 2018
Accepted Jan 16, 2018
An extensive effort to evolve various routing protocol to ensure optimal data
delivery in energy efficient way is beneficial only if there is additional means
of security process is synchronized. However, the security process
consideration introduces additional overhead thus a security mechanism is
needed to accomplish an optimal trade-off that exists in-between security as
well as resource utilization especially energy. The prime purpose of this
paper is to develop a process of security in the context of wireless sensor
networks (WSN) by introducing two types of sensor node deployed with
different capabilities. The proposed algorithm Novel Model of Secure
Paradigm (N-MSP) which is further integrated with WSN. However, this
algorithm uses a Hash-based Message Authentication Code (HMAC)
authentication followed by pairwise key establishment during data
aggregation process in a WSN. The extensive simulation carried out in a
numerical platform called MATLAB that depicts that the proposed N-MSP
achieves optimal processing time along with energy efficient pairwise key
establishment during data aggregation process.
Keyword:
HMAC
Pair-wise key establishment
Security
WSN
Copyright © 2018 Institute of Advanced Engineering and Science.
All rights reserved.
Corresponding Author:
Manjunath B. E.,
Dept. of ECE,
Jain University,
Bangalore, India.
Email: manjunathbephd@gmail.com
1. INTRODUCTION
A WSN is formed with sensor nodes (SNs) using ad-hoc technology. Due to ad hoc technology, SNs
are self-configured and operates the data transfer without any access points as well the computing takes place
in a distributed manner. Traditionally, there exist many communication protocols such as Direct
Communication (DC), Minimum transmission energy (MTE) protocol like hop-by-hop. The problem found
in DC is the remote node from the sink die soon and is reserves in MTE, where nearby node die soon. A
hierarchal routing mechanism, where the entire network is divided into groups called clusters, and a local
sink in each cluster is elected which is called as a cluster head (CH) or aggregator node.
In initial cluster-based protocols, the cluster was static, which provides inconsistency of energy use
because of the successive election of the same node as CH. The limitation of the static cluster is overcome in
a state of artwork LEACH [1], wherein every communication cycle a new set of the cluster is formed and CH
election. Since LEACH, enormous efforts are made by various other researchers towards developing new
protocols for routing or communication, the collective information can be found in [2]. The WSNs having
exploding usage into different critical applications since its conceptualization on the timeline, and the few to
name includes (a) smart farming, (b) structural health monitoring, (c) fire detection in forest, (d) traffic
congestion, etc. till Internet of Things (IoT) application so it is not just limited to military applications rather
it has become a lifeline. The threats of attacks on this network are distinct philosophical to any network

Int J Elec & Comp Eng ISSN: 2088-8708 
Balancing Trade-off between Data Security and Energy Model for Wireless Sensor …. (Manjunath B. E.)
1049
security requirements. A detailed survey is about the current trend of a secure communication system in
WSN is presented [3].
Although the most recent techniques to enhance the security paradigm in WSN networking
environments are found efficient in securing the transmitted data packets still there exists a trade-off in
between safety and energy consumption where most of the routing based and optimization based techniques
lacks computational efficiency thus it generates power consumption overhead in overall systems. Therefore,
by addressing this above stated issue the proposed study conceptualized an energy efficient framework
namely N-MSP for secure data transmission and aggregation in a WSN.
The proposed secure framework adopted the features of Cryptography based security to authenticate
the message to be transmitted through a wireless channel. The technique utilizes an HMAC based
authentication scheme followed by pairwise key establishment during data aggregation process for two
different type of node set up. However, an extensive simulation has been carried out to verify the
performance efficiency of the proposed cryptography based N-MSP method which thereby depicts that being
a light-weight security framework; it achieves very less computation time and energy consumption
concerning iteration. It also shows that framework can easily manage the dynamicity of the network and
performs the hash-based message authentication in the different parameterized scenario. The performance
evaluation ensures its effectiveness on processing huge block size considering secure hash functions. The
proposed framework also performs a secure data aggregation irrespective of any additional computing
parameters. The paper organization is maintained as per the following orientation Section 2 describes all the
significant conventional studies and their respective contributions where as Section 3 presents the conceptual
system design for the prosed security paradigm, and Section 4 thereby discusses the implementation scenario,
simulation results obtained and analysis, and finally Section 5 concerns to conclude the overall work.
2. REVIEW OF LITERATURE
The related work study can be broadly categorized into three groups namely (a) Techniques for
Routing based security, (b) Techniques on Cryptographic-based security and (c) Techniques on Optimized
security models.
2.1. Techniques for Routing based Security
Literature survey shows, the routing based security techniques normally implemented with the
purpose of evolving security features on extensive routing operations. However, a closer look at the existing
literature shows that most of the conventional routing strategies are considerably modified to some extent
concerning security aspects. The prime objective of the existing studies was found more likely towards
enhancing the security features of routing protocols.
The study of Das, et al.; [4] most recently introduced a WSN driven threat modeling system to bring
resistance against wormhole as well as flooding attacks. Moreover, the study adopted the features of MAC
scheme to ensure optimal security management in a WSN.
The study of Nandu and Shekokar [5] designed a conceptual model about the network authentication
where the prime focus was laid towards defending DoS attack in WSN. The technique improvised the
concept of re-programming along with the ease of decoding-encoding, selection of scope and versioning.
To address the critical factors of cloud-based security models, the study of Henze et al.; [6]
presented a solution approach which involves confederation of IoT with cloud computing paradigm. The
study ensures higher acceptance of the proposed vision into the real-time cloud-based applications by
incorporating a comprehensive approach for privacy preservation of sensitive data. However, the method also
enables the integrity of cloud services to enhance the adaptable interface for privacy requirements.
Sasikumar and Preetha [7] exhibited an extensive performance analysis of secure LEACH based
clustering protocol from a theoretical perspective. However, most of the LEACH based protocols are found
vulnerable to the security attacks. Keeping key design complexities of LEACH into the mind, the proposed
study analyzes the performance competence of the secure-LEACH. The extensive simulation has been
carried out considering the verification of every node's authenticity along with discarding bogus messages,
intended to interrupt communication scenario. The outcome of the study thereby ensures the effectiveness of
secure-LEACH in protecting the network from intruders.
The study of Flinn et al.; [8] introduced a unique application of A-Star algorithm using enhancing
the heuristic component. The study is claimed to achieve a balanced flexibility in between the security and
the network efficiency. The study outcomes are verified by different levels changing topologies which
confirm that it ensures a high level of security at the cost of an optimal path when compared to the well-
known Dijkstra's algorithm.
A ring based grouping mechanism for WSN has been introduced in the study of Mengyao et al.; [9].

 ISSN: 2088-8708
Int J Elec & Comp Eng, Vol. 8, No. 2, April 2018 : 1048 – 1055
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The study mostly intended to perform a secure inter-cluster communication where the security features are
mostly inclined towards supportable trust factors.
Adnan et al.; [10] conceptualized a secure protocol namely Secure Region-Based Geographic
Routing Protocol (SRBGR) for WSN communication paradigm. The protocol has been designed with the aim
of preventing undesirable packet transmission and increasing the probability of discovering relay nodes. The
experimental outcomes demonstrate that SRBGR outperforms the conventional techniques n terms of packet
delivery ratio. It also improves the network efficiency by resisting Sybil and blackhole attacks.
Masdari et al.; [11] tried to improve the performance efficiency of SECURE-LEACH protocol from
all possible security aspects. Further, the extensibility is defined as per the standard protocol implementation
scenario in WSN. The next segment discusses few of the significant contribution towards security
enhancements for WSN using cryptographic-based techniques.
2.2. Techniques on Cryptography Based Security
Cryptography based authentication is another way to provide high-level security on network
protocols. It incorporates encryption mechanism on transmitted data packets and makes it more secure while
sending through wireless communication channels. It is more often provided secure communication by
detecting vulnerable links on a WSN. However, most of the extensive reviews on cryptographic protocols
exhibit the fact that the high-level conceptual design and respective implementation scenario of conventional
cryptosystems are complex and error-prone. Thus it affects the performance of an overall system. However,
the analysis says that either one can develop his cryptography technique or can modify the old ones. The
most recent work carried out by Tomar et al.; [12] implemented an image-based authentication that enables
ECC cryptography for secure key exchange. The design analysis of the algorithm shows that it utilizes very
less key size and computing steps, thereby achieves computational efficiency regarding processing time and
key exchange time. Experimental outcomes further display its effectiveness towards providing a secure layer
to cloud computing networks.
The study of Soosahabi et al.; [13] presented a cryptographic probabilistic approach to the
deliberately present state of transmission whether it could be a harmless or harmful state.
Kabir et al.; [14] formulated a security framework involving privacy preservation of sensitive and
secret information. The proposed framework was claimed to be capable of handling security issues using
symmetric key cryptography. The study simulates the proposed framework under parameterized and
reconfigurable sensor nodes where execution time, memory, power consumption, and cost were considered
as performance parameters. The findings of the proposed work were compared with the significant prior
studies.
The study of Kodali and Sarma [15] an ECC based Diffe-Hellman key exchange protocol has been
proposed and implemented. The outcome of the study was verified under extensive simulation and studied
considering underlying protocol stack. The study outcomes offer lowered computational complexity during
implementation.
2.3. Techniques for Optimized Security Models
The recent survey towards optimized security models for WSN paradigms has claimed it to be an
active research area since 2010 onwards. In the recent past, most of the studies are found to adopt
optimization models into their work such as the study of Narad and Chavan [16] incorporated the concept of
the neural network to build up a new authentication scheme for WSN intensive routing operations.
Karapistol and Economides [17] have presented a modelling of security framework to address the
jamming attack in WSN. The proposed system adhere the features of game theory and thereby simulated
under extensive probability and utility factors. The design factors of the modelling considered the
components of Stackelberg games. It can be seen in the study of [18] that same author has carried out an
alternative simulation to detect the anomaly of respective events.
Poojashri et al.; [19] also introduced a game theoretical approach based framework to detect the
node compromise attack in WSN. The proposed system namely intelligent Intruder Detection System (IDS)
is proposed concerning three different functional components such as a combined framework using data
fusion, neural network, and game theory. The obtained simulation results show that the proposed model can
achieve significant outcomes while defending the attacks performed on sensitive information.
A bio-inspired algorithmic approach namely ant colony optimization has been utilized in the study
of Alrajeh et al.; [20] where the outcomes were verified under several optimized performance parameters.
The simulation results ensure its effectiveness in controlling data efficiency and minimizing the packet loss
during transmission.

1051
Another implementation of game theoretical approach can be found in the study of Ding et al.; [21]
where the performance efficiency of the proposed model has been evaluated considering performance metric
of energy consumption during ciphering, memory consumption and execution time.
TO tackle the issues of node attacks, a trust-based secure routing (TSR) mechanism is discussed in
Ahmed et al. [22]. The outcomes of this mechanism under faulty node condition suggested that it achieves
better delivery ratio and throughput. A review work towards the comparing the different asymmetric
Cryptographic (ECC, RSA, DSA, etc.) algorithms was done for WNS by Singh and Chauhan [23]
considering various parameters (weakness, key strength, attacks). The work introduced by Wang et al., [24]
gives the security analysis for WSN by considering the wormhole attacks.With the designed security model
author has achieved highly effective and accurate security for WSN.
3. SYSTEM MODEL OF N-MSP
The proposed system aims to formulate a novel framework to enhance the security parameters of
conventional WSN considering a mix mode deployment strategy for two different types of sensor nodes such
as TYPE-1 and TYPE-2 sensor nodes. However, the study also aims to achieve an optimal trade-off in
between energy consumption and security during intensive routing operations. The following Figure 1
depicts the architectural framework of the conceptual model concerning key generation and clustering set up.
SYSTEM MODEL
Simulation Parameters
Init Type-1 Nodes
Init Type-2 Nodes
Mixed Mode
Deployment
Key Generation and
Clsutering
Initial KEY Setup
Pairing KEY Set up
Perform DATA
Aggregation
PERFORMANCE ANALYSIS
Figure 1. System Model of the Proposed Framework
The proposed system performs clustering of sensor nodes followed by secure data aggregation
where the concept of Hash-based Message Authentication Code (HMAC) plays a significant role. The
proposed model also uses a pairwise key generation process where each node generates unique key randomly
with a combined entity of private and public key components. The framework thereby performs HMAC
authentication scheme in each message transmitting from one sensor node to another during data aggregation
process. The HMAC authentication initiates SHA-1, SHA-256,
SHA-384, SHA-512 based on the requirements to process block size of data. Finally, the obtained
simulation results have been verified under several performance parameters regarding computation time T
measurement concerning the number of iteration performed by the algorithm during pairwise key
establishment and cluster key update. The experimental outcomes show the effectiveness of the proposed
method for reducing the computational cost and energy overhead.

 ISSN: 2088-8708
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ALGORITHM ONE: Proposed Energy-Efficient Secure Data Transmission in WSN
Input: Ntype1, Ntype2, A
Output: Secure DA and Energy Efficient Communication
START
1. Initialize Ntype1 , Ntype2 , A;
2. Generate x, y localization under boundary;
3. Generate coordinates of Type-1 nodes;
4. Generate coordinates of Type-2 nodes;
5. Perform mixed mode deployment;
6. Perform, Initial KEY Setup;
7. Init MPKEY, PUBKEY, Crypto(hash) ;
8. Concatenate MPKEY , PUBKEY , Crypto(hash) ;
9. PLOT N;
10. Formation of a cluster
11. Perform pairing KEY set up
12. Compute pair of PARP-KEY, PARPUB-KEY
13. Generate individual node key randomly
14. Perform HMAC, SHA-1 on Ntype1 data.
15. Perform pairwise KEY generation
16. FOR (i1: Ntype1 )
17. COMPUTE Advmsg
18. COMPUTE dist.
19. END
20. Connect Ntype1 with Ntype2
21. Find out nodes within range
22. Set up communication
23. Select CH based on proximity
24. Select the node with minimum dist
25. Perform Data Aggregation
END
This algorithm depicts how the proposed N-MSP attains energy efficient securing data transmission
by incorporating the concept of HMAC with pairwise key generation. However, in the initial step, the
algorithm takes No. of Type-1 and Type-2 nodes as input and perform localization of respective nodes under
a specific boundary (Line: 1-4). Further, the algorithm performs a mix mode deployment of these on a fixed
area A with different types of capabilities (Line-5). The algorithm enables an initial KEY set up in every
node to perform data encryption on their respective data (Line-6). Further, it also initiates MPKEY,
PUBKEY and a Crypto(hash) to encrypt the data before transmission in the wireless network environment.
Later on, it concatenates all the key values and forms the network parameters (Line: 7-10). However, the
algorithm thereby formulates a clustering scheme for the ease of data aggregation and performs distribution
of pairing KEY followed by computation of partial private and public key (Line:10-13). The framework
incorporates a hash-based authentication scheme to validate every data packet which is present as follows
with a mathematical expression (Line-14).
HMAC (MPKEY, D)  (1)
H ((MPKEY
1
 opad) || H ((MPKEY
1
 iPad) || D)) (2) [25]
The above Equation (2) exhibits that the Crypto (hash) performs outer padding and inner padding in MPKEY
1
before performing exclusive or and concatenation operation on the data D to be authenticated. The following Table 1
represents the symbols and their respective description used in Algorithm-1.
The algorithm further performs pairwise key generation and further precisely address the nodes
which are within communication range. The cluster head selection is formulated based on a proximity
orientation where the node resides within a minimum distance also taken into consideration. Finally, the
algorithm performs the data aggregation before the initialization performance metrics. The next segment of
the proposed study performs a simulation of the proposed N-MSP algorithm where the various performance
metrics are taken into consideration to measure the computational efficiency of the proposed N-MSP to
maintain a balance between security and energy consumption. The simulation has been carried out
considering a numerical computing platform concerning different rounds.

1053
Table 1. Symbol Representation
Sl. No Symbol Description
1 A Deployment Area
2 Ntype1 No of Sensor Node of Type-1
3 Ntype2 No of Sensor Node of Type-2
4 x, y Localization of Sensor Nodes
5 DA Data Aggregation
6 MPKEY Master Private key
7 PUBKEY Public Key
8 Crypto(hash) Cryptographic HASH function
9 N Network parameter
10 Advmsg Advertisement Message
11 dist Distance
12 PARP-KEY Partial Private key
13 PARPUB-KEY Partial Public key
14. D DATA
15 MPKEY
1
Secret key derived from original
key
16 H Cryptographic Hash
4. SIMULATION ENVIRONMENT
The proposed algorithm namely N-MSP has been simulated under MATLAB Computing Platform
running on 64-bit operating systems. The framework performs an extensive analysis of the proposed light-
weight cryptography algorithm concerning several performance parameters.
The simulation studied to evaluate the processing time required during cluster key update which is
plotted in (Figure 2), depicts that the proposed N-MSP achieves very less amount of processing time during
encryption process with cluster key update concerning different level of iteration. Thereby, the asymptotic
analysis conveys N-MSP's effectiveness on accomplishing computational efficiency. It also shows how the
processing time of the proposed N-MSP has been computed considering the different velocity of mobile
sensor nodes such as 1m/s, 2m/s, etc. However, in every simulation scenario more or less the proposed
system achieves very less computation time.
Figure 2. Iteration Vs. Processing Time (Sec) Figure 3. Iteration Vs. Energy Consumption (J)
The experimental outcomes also exhibit that despite having a capability to process a secure data
transmission faster our proposed algorithm also archives an optimal trade-off in between the security and
energy consumption. The extensive simulation carried out for observing the outcomes of pairwise key
establishment steps reveals that the proposed N-MSP also consume very less amount of energy concerning
iteration for different mobile nodes as in (Figure 3). The optimal energy consumption along with higher
computational efficiency makes the algorithm extensible and more active in future research perspectives.
5. CONCLUSION
Secure data transmission in WSN has become one of the most active research areas for many years.
The proposed study formulated a novel model of security paradigm namely N-MSP which can perform
efficient, secure hash oriented message authentication in an energy efficient manner. The proposed technique

 ISSN: 2088-8708
1054
most adheres the features of HMAC based SHA-1 to authenticate every sensor messages before performing
data aggregation on this. The obtained outcomes after simulating the proposed HMAC in a numerical
computing simulation tool exhibits its effectiveness on achieving very less processing time and energy
consumption. It also archives optimal trade-off in between energy and security. Moreover, the study ensures
its extensibility in futuristic sensor applications.
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[25] H. Krawczyk, M. Bellare, R. Canetti,"HMAC: Keyed-Hashing for Message Authentication," Network Working
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BIOGRAPHIES OF AUTHORS
Manjunath B. E., pursuing Ph.D. under Jain University. I have completed my M.Tech from SSIT,
Tumkur, VTU, Belagavi, Karnataka, India. My total work experience is around ten years. Attended
a Three Day Workshop on "ROBOTRYST – 2013" in association with Tryst IIT-Delhi. Attended a
Three Day National level Workshop on "Microcontroller MSP430 & its Applications" organized by
HKBK College of Engineering, Bangalore in association with VTU, Belgaum, Karnataka State
Council for Science and Technology, Bengaluru & M/s Advanced Electronics Systems at HKBK
campus on 30th January to 1st February 2012. Participated in a five day Mission10x workshop on
"Faculty Empowerment Program" conducted by Wipro, Bengaluru, from 23rd to 27th November
2009. Participated in a three day Mission10x Advanced workshop on "Faculty Empowerment
Program" conducted by Wipro, Bengaluru. Participated in a one day workshop on " Recent Trends
& Challenges in Indian Power Sector" organized by E&EE Dept., SKIT, Bengaluru, on 31st
October 2009.
Dr. P.V. Rao., Professor, Dept. of E&C, I have completed Ph.D. at Dr. MGR University, Chennai
in 2011. My total professional experience is around 23 years. My two Ph. D research scholars
submitted a thesis and awaiting for final debate guiding five Ph. D candidates in the area of Low
Power VLSI Signal processing and image processing from visvesvaraya Technical University,
Belagavi, Karnataka, India.

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