An Efficient Emergency Vehicle Clearance Mechanism for Smart Cities

Authors:

Biru Rajak,Shrabani Mallick,Dharmender SinghKushwaha,

DOI NO:

http://doi.org/10.26782/jmcms.2019.10.00007

Keywords:

Emergency vehicle,Green Corridor,RFID,Smart traffic management,SUMO,Traffic congestion,

Abstract

The transportation management system is becoming an overwhelming task across the globe due to Globalization and population growth. Increased traffic congestion poses several problems. The extended waiting time at traffic jam leading to air and noise pollution due to the amassed vehicle is a serious threat to human health and the environment. This situation aggravates the clearance of any emergency vehicle resulting in grave consequences for the patient. A better control over the transportation system can be achieved through the Internet of Thing (IoT) based smart infrastructure. To deal with such emergency situations, this paper proposes a framework for automatic emergency vehicle clearance system. Traffic signal dynamically suspends the routine movement of traffic flow to create a "Green Corridor" to pass the ambulance without any delay at the traffic junctions. IoT based RFID tag and reader at vehicle and traffic junction respectively is used to identify the ambulance at the traffic junction. The work is simulated in SUMO and detection of RFID is analyzed in NS2 with the integration of SUMO. Considering the criticality of the issue, a simulation of the proposed work does not suffice. Therefore to check the robustness of the proposed system, it has been tested in a laboratory environment. The average reduction in travel time for five different simulations for an emergency vehicle from source to destination is 254.6%, which is substantial.

Refference:

I. A. Chattaraj, S. Bansal & A. Chandra, “An intelligent traffic control system using
RFID”, Potentials, IEEE 28.3 (2009): 40-43.
II. A.K. Mittal and D. Bhandari, “A novel approach to implement green wave system
and detection of stolen vehicles,” Proc. IEEE 3rd Int. Adv. Comput., Feb. 2013, pp.
1055–1059.
III. A.R. Dobre, A.V. Nita, A. Ciobanu, C. Negrescu, D. Stanomir, “Low computational
methods for siren detection” , Proceedings of the IEEE 21st International
Symposium for Design and Technology in Electronicpackaging (SIITME), Brasov,
Romania, 22–25 October 2015; pp. 291–295.
IV. A.S.Eltayeb, H.O Abubakr & T. A. Attia, “A GPS based traffic light pre-emption
control system for emergency vehicles” 2013 International Conference on
Computing, Electrical and Electronic Engineering (ICCEEE). IEEE, 2013.
V. B. Fazenda, H. Atmoko, F. Gu, L. Guan, A. Ball, “Acoustic based safety emergency
vehicle detection for intelligent transport systems”, Proceedings of the IEEE
International Conference ICROS-SICE, Fukuoka,Japan, 18–21 August 2009; pp.
4250–4255.
VI. D. Smith, S. Djahel & J. Murphy, “A sumo based evaluation of road incidents’
impact on traffic congestion level in smart cities”, 39th Annual IEEE Conference on
Local Computer Networks Workshops, pages 702–710. IEEE, 2014.
VII. F. Meucci, L. Pierucci, E. del Re, L. Lastrucci, P. Desii, “Areal-time siren detection
to improve safety of guide in traffic environment”, Proceedings of the IEEE 16th
International Conference on European SignalProcessing, Lausanne, Switzerland, 25–
29 August 2008; pp. 1–5.
VIII. F.W.Cathey & D.J. Dailey, “A novel technique to dynamically measure vehicle
speed using uncalibrated roadway cameras”, IEEE Proceedings. Intelligent Vehicles
Symposium, 2005. (pp. 777-782). IEEE.
IX. G. Palubinskas, F. Kurz, & P. Reinartz, “Detection of traffic congestion in optical
remote sensing imagery” , IGARSS 2008-2008 IEEE International Geoscience and
Remote Sensing Symposium (Vol. 2, pp. II-426). IEEE.
X. http://www.atmel.com/Images/Atmel-42735-8-bit-AVR-Microcontroller –
ATmega328-328P_Summary.pdf.
XI. http://www.merinews.com/mobile/article/India/2014/10/17/give-way-to-ambulanceeducates-
people-that-saving-time-is-saving-life/15902114.
XII. K. Nellore, G. Hancke, “Traffic management for emergency vehicle priority based
on visual sensing.” Sensors 16.11 (2016): 1892.

XIII. N. Singh, “An Efficient Approach for Handwritten Devanagari Character
Recognition based on Artificial Neural Network”, 2018 5th International
Conference on Signal Processing and Integrated Networks (SPIN), Noida, 2018, pp.
894-897.
XIV. N. Singh & T. Kumar. “An Improved Intelligent Transportation System: An
Approach for Bilingual License Plate Recognition.” Information and
Communication Technology for Intelligent Systems. Springer, Singapore, 2019. 29-
38.
XV. P. Priya, A. Jose, and G. Sumathy, “Traffic light pre-emption control system for
emergency vehicles.” SSRG International Journal of Electronics and Communication
Engineering (SSRG-IJECE) 2.2 (2015).
XVI. R. Sundar, S. Hebbar & V. Golla, “Implementing Intelligent Traffic Control System
for Congestion Control, Ambulance Clearance, and Stolen Vehicle Detection”, IEEE
Sensor Journal, Vol. 15, No. 2, Febuary 2015.
XVII. S. Sharma, A. Pithora, G. Gupta, M. Goel, & M. Sinha, “Traffic light priority control
for emergency vehicle using RFID,” Int. J. Innov. Eng. Technol., vol. 2, no. 2, pp.
363–366, 2013.
XVIII. T. Idé, T. Katsuki, T. Morimura & R. Morris, “City-wide traffic flow estimation
from a limited number of low-quality cameras” IEEE Transactions on Intelligent
Transportation Systems, 18(4), 950-959.
XIX. T.J. Hall, M.A. Schwartz & S.M. Hamer, “Gps-based traffic control preemption
system.” U.S. Patent No. 5,539,398. 23 Jul. 1996.
XX. T. Kumar & D.S. Kushwaha, “An Approach for Traffic Congestion Detection and
Traffic Control System”, Proceedings of Third International Conference on ICTCS
2017.
XXI. T. Kumar & D.S. Kushwaha, “An efficient approach for detection and speed
estimation of moving vehicles”, Procedia Computer Science, 89, 726-731.
XXII. T. Kumar, R. K. Sachan, D. S. & Kushwaha, “Smart City Traffic Management and
Surveillance System for Indian Scenario in Recent Advances” Mathematics,
Statistics and Computer Science (2016) (pp. 486-493).
XXIII. T. Miyazaki, Y. Kitazono, M. Shimakawa, “Ambulance siren detection using FFT
and dsPIC”, Proceedings of the First IEEE/IIAE International Conference on
Intelligent System and Image processing, Kitakyushu,Japan, 26–27 September 2013;
pp. 266–269.

View Download