© 2016, IJCSE All Rights Reserved 140
Review Paper Volume-4, Issue-5 E-ISSN: 2347-2693
Efficient Path Reconstruction for Wireless Sensor Network
Payel Ray
1*
, Ranjan Kumar Mondal
2
, Debabrata Sarddar
3
1
Department of Computer Science & Engineering,
University of Kalyani, WB, India
2
Department of Computer Science & Engineering,
University of Kalyani, Kalyani, India
3
Assistant Professor, Department of Computer Science & Engineering,
University of Kalyani, Kalyani, India
Available online at: www.ijcseonline.org
Received: Apr/21/2016 Revised: May/04/2016 Accepted: May/18/2016 Published: May/31/2016
Abstract— Recent wireless sensor networks (WSNs) are becoming increasingly complex with the growing network scale and
the dynamic nature of wireless communications. Many measurement and diagnostic approaches depend on per-packet routing
paths for accurate and fine-grained analysis of the complex network behaviors. In this paper, we propose a Path, a novel path
inference approach to reconstructing the per-packet routing paths in dynamic and large-scale networks. The basic idea of the
Path is to exploit high path similarity to iteratively infer long paths from short ones. The Path starts with an initial known set of
paths and performs path inference iteratively.
In order to further improve the inference capability as well as the execution efficiency, it includes a fast bootstrapping
algorithm to reconstruct the initial set of paths. We also implement the Path and evaluate its performance using traces from
large-scale WSN deployments as well as extensive simulations. Results show that it achieves much higher reconstruction ratios
under different network settings compared to other state-of- the-art approaches.
Keywords—Measurement, path reconstruction, wireless sensor Network.
I. Introduction
A Wireless Sensor Network [1] is a dense wireless network
of small low cost sensors, which collect and disseminate
environmental data. WSNs facilitate monitoring and
controlling of physical environments from remote locations
with better accuracy [2]. Wireless Sensor Network has
applications in a variety of fields such as environmental
monitoring, military purpose and gathering sensing
information in hospital locations. Sensor nodes have various
energy and computational constrains due to their
inexpensive nature and ad hoc method of deployment [3]. A
wireless sensor network basically does- Sensing: Senses the
dada from environment. Computation: each Sensor node
made some computation based on sensed data.
Communication: the sensed data communicates with other
sensor nodes and/or base stations to make a result based
computed data. WSN contains large number of tiny nodes
that can assemble and configure themselves and are
deployed to
create a mesh network. The node uses advanced mesh
networking protocols. The protocol searches every possible
communication path by hopping dada from node to node in
search of the destination. Unlike traditional wireless
devices, wireless sensor nodes communicate only with its
local peers, not with the high Power control tower or base
station. These WSNs are able to support very different kind
of applications. But working with WSNs leads to many
challenges due to their many inherent constraints (for
instance coverage and connectivity, power efficiency,
localization) [4]. These challenges have emerged many
research issues. There is not any common solution which
can solve all problems associated with WSN. So many
research initiatives have been taken on this field to optimize
the performance and overcome the constraints of WSN.
II. Applications of Wireless Sensor Network:
Sensor network may consist of many different kind of
sensors, such as- Seismic sensor, Thermal Sensor,
Visual Sensors, Infrared Sensor, Acoustic Sensor, Rader
[5]. These sensors are able to monitor a wide variety of
environment, such as- Temperature, Humidity, Noise level,