Identification and Improvement of Accidents black Spots for Mixed Traffic Streets in Developed Cities-A Case Study

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Identification and Improvement of Accidents black Spots for Mixed Traffic Streets in Developed Cities-A Case Study M.Subbareddy 1, K.S.B.Prasad 2 Department of Civil Engineering, GMRInstitute of Technology, JNTU Kakinada subbareddy333@gmail.comksbprasad@gmail.com Abstract:Accidents are not natural but they are caused is a common Cliche in the area of traffic Safety. Thus, if Accidents are caused by someone surely, ones responsible for could be identified and appropriate remedial measures developed and implemented to the extent feasible. The investigation is carried out to identify and analyze accident black spots in the study area. This study identifies the reasons for accidents that may be due to the improper geometric design, vehicle condition, and driver negligence or may be of environment factor and suggest measures on priority basis and alternatives to reduce the accidents in the streets of study area and identify black spots and conduct volume studies, spot speed & gap acceptance,through this research, an attempt has been made to develop Accident Prediction Model to take remedial measures in advance by studying future trends, to take mitigation measures to minimize the accident rates to certain extent and to take other safety measures. The model is developed using accident prediction model as a modelling technique and also to reduce the Fatality Rate in the study area. Keywords:Black Spots, Spot Speed, Traffic Accidents, Volume Studies,Gap Acceptance I. Introduction The process of rapid and unplanned urbanization has resulted in an unprecedented revolution in the growth of motor vehicles world-wide. In India, more than 7, people get killed due to RTI(road traffic incidents) every year. Hyderabad Urban Development Area(HUDA) and has been growing at an average rate of 9% Population with an estimation to touch 13.64 million by 221, and the increase in vehicular number has definitely created crisis in Hyderabad. If accident is caused by some, surely the ones responsible for could be identified and appropriate remedial measures developed and implemented to the extent feasible. In most of the metropolitan cities in India, the road use patterns are very different from those in developed countries. Globalization had brought in significant changes in lifestyles and occupation. Migration from rural to urban in search of better livelihood, increasing population, urbanization and modern infrastructures have made man more and more dependent on motorized vehicles. This resulted in the increase in economic activities and there has tremendous growth of motor vehicles, Which is considered as one of the primary factors responsible for increasing road accidents in many metropolitan cities of developing countries. 1.1 Indian Accident Scenario Indian traffic is of Heterogeneous with heavy presence of two wheelers. The mixed traffic conditions make the safety situation worse.the magnitude of road accidents at an alarming rate. Accident rate increased from the year 1 number of accidents occurred 45637 to in year 214 About 49,383 accidents occurred and 138,258 were killed. In India, 6% of total accidents take place during night through the night traffic is hardly 15% of 24hours Volume. Which means that the accident in India during night is eight times greater than the day traffic. 1.2 Study Area A City with population of more than 12 million as per 214, Hyderabad Metropolitan Development Authority (HMDA) is the major urban aggressively positioning itself as hub for Administrative, Financial, Industrial, Educational, Medical, Cultural activities resulting in high growth rate, The existing streets network in Hyderabad consists of arterial roads, sub arterial roads and local streets. HMDA spreads over an area of 65Sq.km,Telangana State Road Transport Authority (TSRTC). In the present study the data obtained from Hyderabad & Cyberabad Police within its jurisdiction have been used and identified blackspots. 1.3 Objective of the Study Fig 1.1 Study Area 1) To identify accident black spots in the study stretches. IJER@215 Page 527

2) To understand the nature, type and mode of occurrence of accidents. 3) To analyze the causes of accidents on the study stretch and fatality rate. 4) Proving remedies for causes of accidents in study area. II. Methodology Table-1: Range of Values Applicable to this model In the Table-1 show number of access points per kilometre Range 6-12, hourly traffic volume range 1597-3952vph, gap acceptance range 2.75-3.97, 85 th Percentile speed range 63.3-82.2kph is applicable for accident prediction model as a modelling technique. Table-2: Access points at five places Volume studies and spot speed, Gap Acceptance surveys has been conducted at Dundigal, Shamshabad, Shamirpet, Narsingi & Ghatkesar, to identify accident black spots in the study stretches and to understand the nature type and mode of occurrence of accidents analyze the causes of accidents on the study stretch model is used accident prediction model as a modelling technique. III. Results and Tables The accident prediction model developed by Rokade.S given below: In the Table-2 show Access points at Dundigal-8, Shamshabad-6, Shamirpet-9, Narsingi-7, and Ghatkesar-6 are Observer at each study area. Table-3: Hourly Traffic Volume for five places In (APW).5 =.212(AP) +.7 (HTV.75 + GAP 1.25 ) +.21 (85 th PS) Where, APW = accident point weightage AP = number of access points per kilometer HTV = hourly traffic volume Gap = amount of time, between the end of one vehicle and the beginning of the next in second. 85th PS = 85th percentile speed. 3.1 Range of Values Applicable to this model: In the Table-3 show Hourly Traffic Volume at Dundigal- 149, Shamshabad-198, Shamirpet-3314, Narsingi-1994, & Ghatkesar-39 are the values Obtained by volume studies IJER@215 Page 528

NO.OF ACCIDENTS Table-4: GAP Acceptance FR = F X,,/ADT X 365 FR = Fatality Rate F = Fatal Accidents Per year per section ADT = Average daily traffic (vehicles per day) Table-7: Fatality rate for five places In the Table-4 show gap acceptance at Dundigal-2.2, Shamshabad-3.17, Shamirpet-3.45, Narsingi-3.62 & Ghatkesar- 2.51 are the values Obtained by Gap acceptance studies. Table-5: 85 th Percentile Speed In the Table-7 show fatality rate at Dundigal-88.52, Shamshabad-54.13, Shamirpet-14.26, Narsingi-2.6 & Ghatkesar-2.37 are the values Obtained by Fatal rate. 3.2 Three years Accidents (212-214) In the Table-5 show 85 th Percentile Speed at Dundigal-64, Shamshabad-66, Shamirpet-68, Narsingi-65 & Ghatkesar-7 are the values Obtained by Spot speed studies. Table-6: Accident Point Weight age Accidents(212-214) 26 2576 2585 25 249 2 2 Accidents 212 213 214 YEAR FIG-3.1 Last Three years Accidents In the above graph show accident data at Hyderabad Year- 212 (2576), Year-213 (249), Year-214 (2585). In the Table-6 show Accident Point Weightage at Dundigal-164.45, Shamshabad-172.39, Shamirpet-192.78, and Narsingi-172.25 & Ghatkesar-188.95 is applicable foraccident prediction model as a modelling technique. 3.2 FATALITY RATE Fatality rate determines the rate at which deaths occures due to accidents in a particular stretch of road in a year. 3.3 Volume Studies Graphs Volume Studies are conducted manually at intersections for which the vehicle volume count is to be conducted is first selected and tabular sheets which are to be used are slightly modified to the sheets used for straight roads and traffic enumerates are posted to each arm of intersection an enumerator has to note down the number of vehicles entering the intersection which can be broken down into three categories as left turning, right turning and straight going traffic. The volume counts may be conducted for the vehicles based on respective type as showing all the traffic passing through a stretch as only one type of traffic. Volume counts IJER@215 Page 529

must be counted on 15 min intervals at 9:am to 5:pm at Dundigal, shamshabad, shamirpet, Narsingi and Ghatkesar. 3.3.1 DUNDIGAL TO GANDI MAISAMMA: DUNDIGAL-GANDI MAISAMMA 345 5964 142315 111 9:-1: Fig 3.4 shows 11:-12:AM peak hour more Number of 2 wheelers is highest among all vehicles with 115. 3.3.4 MEDCHAL-MEDAK: 25 15 5 15 4 MEDCHAL-MEDAK 23 87 36 232719171 1 9:-1: FIG-3.2 Peak hour Vehicles Fig 3.2 shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 345. 3.3.2 GANDI MAISAMMA TO DUNDIGAL: GANDI MAISAMMA-DUNDIGAL 214 2217 4 1 1:-2: FIG-3.5 Peak hour Vehicles Fig 3.5 shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 23. 3.3.5 Shamshabad-Malakram: 5 Shamshabad-Malakram 13 448 63 58 15 2 11 3 5 1 FIG-3.3 Peak hour Vehicles Fig 3.3 shows 1:-2:AM peak hour more Number of 2 wheelers is highest among all vehicles with 214. 3.3.3MEDAK-MEDCHAL: 15 5 1915 MEDAK-MEDCHAL 115 53 15 9 27 19 4 2 1 11:-12: FIG-3.6 Peak hour Vehicles Fig 3.6 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 448. 3.3.6 Malakram-Shamshabad: FIG-3.4 Peak hour Vehicles IJER@215 Page 53

Time(pm) car/je C.Ric car/j lcv/t Time(pm) Malakram-Shamshabad 38 89 9 73 37 9 26 6 5 Shamirpet-Majeedpur 12 2 63 329193 48 54 36 6 1 2 FIG-3.7 Peak hour Vehicles Fig 3.7 Shows 11:-12:AM peak hour more Number of 2 wheelers is highest among all vehicles with 38. 3.3.7 Tondupally-Gachibowli FIG-3.1 Peak hour Vehicles Fig 3.1 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 63. 3.3.1 Majeedpur-Shamirpet: 6 Tondupally-Gachibowli 472 14 29 23 21 13 21 5 1 6 Majeedpur-Shamirpet 458 3 64 213 74 38 55 2 FIG-3.8 Peak hour Vehicles Fig 3.8 Shows 4:-5:PM peak hour more Number of 2 wheelers is highest among all vehicles with 472. 3.3.8 Gachibowli-Tondupally: Gachibowli-Tondupally 18 35 45 48 16 18 1 3 7 2 FIG-3.11 Peak hour Vehicles Fig 3.11 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 458. 3.3.11 Secunderbad-Alliyabad: 5 Secunderbad-Alliyabad 1 1 451 81 137 93 36 44 1 1 2 FIG-3.9 Peak hour Vehicles Fig 3.9 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 35. FIG-3.12 Peak hour Vehicles Fig 3.12 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 451. 3.3.9 Shamirpet-Majeedpur: IJER@215 Page 531

Time( car/je 3.3.12 Alliyabad-Secunderbad: Alliyabad-Secunderbad 357 3 2 39 84 52 26 54 2 5 6 Uppal-ECIL 474 95 166 117 49 89 2 23 FIG-3.13 Peak hour Vehicles Fig 3.13 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 357. 3.3.13 Narsingi-Manchirevula: 6 Narsingi-Manchirevula 5 2 56 126152 41 25 2 FIG-3.16 Peak hour Vehicles Fig 3.16 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 474. 3.3.16 Uppal-Ghatkesar: 6 Uppal-Ghatkesar 46 57 119 53 29 51 1 FIG-3.14 Peak hour Vehicles Fig 3.14 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 56. 3.3.14 Manchirevula-Narsingi: 15 5 1 Manchirevula-Narsingi 1328 282 752 8314263 1 5 FIG-3.17 Peak hour Vehicles Fig 3.17 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 46. 3.3.17 ECIL-Vijayawada: ECIL-Vijayawada 345 38 79 3 2 28 12 FIG-3.15 Peak hour Vehicles Fig 3.15 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 1328. 3.3.15 Uppal-ECIL: FIG-3.18 Peak hour Vehicles Fig 3.18 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 345. 3.3.18 Ghatkesar-Secunderabad: IJER@215 Page 532

Ghatkesar-Secunderabad 376 49 9 43 36 43 7 Acknowledgement First and foremost, I have to thank my parents for their love and support throughout my life. Thank you both for giving me strength to reach for the stars and chase my dreams. I would like to sincerely thank my friends MycherlaChaitanya Unnam.rajesh, Goudiperushashikanth, for giving support to my project surveys, thank you for understanding and encouragement in my many moments of crisis. Your friendship makes my life a wonderful experience. I cannot list all the names here, but you are always on my mind. Thank you Lord, for always being there for me. This journal is only a beginning of my journey. FIG-3.19 Peak hour Vehicles Fig 3.19 Shows 9:-1:AM peak hour more Number of 2 wheelers is highest among all vehicles with 376. IV.Conclusions Accident point weightage of Dundigal-164.45, Shamshabad-172.39, Shamirpet-192.78, Narsingi-172.25, & Ghatkesar-188.95. Fatality Rate of Dundigal-88.52, Shamshabad-54.13, Shamirpet-14.26, Narsingi-2.6, & Ghatkesar-2.37. Blocking Ghatkesar-Uppal access point leads to reduce accident point weight age by 19.32%. The average speeds on the study area are of 85 th speed, Dundigal-64, Shamshabad-66, Shamirpet-68, Narsingi-65, & Ghatkesar-7. Reduction in capacity likely vehicles per hour will reduce accident weight age up to 14.33%. Channelization for every un-controlled intersection will improve gap acceptance also in reduction of accident point weight age up to 8.1%. Hourly traffic volume at Shamirpet among the study areas was 3314, which is at the edge of extreme limits falls between (1597-3952 vph) given by Rokade.S. References i. Sanjay Gupta A Study of Antecedent Factors influencing the Road Traffic Accidents in Malwa Region of Punjab Journal of Advanced Medical and dental sciences research Vol. 2 Issue 4 October-December 214. ii. v.sadauskas Investigation of road accidents on Lithuanian state roads TRANSPORT 6, Vol XXI, No 4, 289 292 (6). iii. Binu B Pillai Causes and consequences for road accidents Kerala Department of mangement studies,nims University,Jaipur(211). iv. Harri Peltola Identification of high accident concentration sections on the Lithuanian roads of national significance The 9th ConferenceEnvironmental Engineering. SelectedPapers, Article number: enviro.214.166 (214). v. Nelson Doroy Black spot cluster Analysis of motorcycle Accidents Proceedings of the Eastern Asia Society for Transportation Studies, Vol.9, 213 (213). vi. K.Lalitha Road traffic accidents (214). vii. rahim f. benekohal Procedures for estimating accident reductions on two-lane Highways,ASCE, 1992.118:111-129. viii. lon-li David shen Development of highway accident hazard index 1986.112:447-464. ix. c. golias Aspects of road-accident death analyses 1992.118:299-311. x. c. sullivan, Estimating accident benefits of reduced freeway congestion 199.116 It is observed as Shamirpet stretch will be an accident prone area with increase in vehicle hourly volume to 538, so traffic control and regulations required. IJER@215 Page 533