THE EFFECTS OF CHANGES AT SIGNALIZED INTERSECTION ON THE VEHICLES EMISSION LOADING IN PARIT BUNTAR, PERAK.

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THE EFFECTS OF CHANGES AT SIGNALIZED INTERSECTION ON THE VEHICLES EMISSION LOADING IN PARIT BUNTAR, PERAK. By MAISARAH BT SULAIMAN Dissertation submitted in fulfilment of the requirements for the degree of Master of Science (Environmental Engineering) School of Civil Engineering Universiti Sains Malaysia June 2011 ii

ACKNOWLEDGEMET In the name of Allah, all praise is due to Him, the Sustainer of the Heaven and Earth and all that is within it and may His blessings be upon the Prophet Muhammmad, peace be upon him. Alhamdulillah, with the grace and blessings of Allah, I have finally finished my thesis. First and fore most, I would like to thank to my supervisor, Associates Professor Nor Azam bin Ramli. I am grateful for the support, time, guidance, advice and all the help and knowledge given and shared by him in order to finish this research. Your patience in enduring my occasional procrastinating and mistakes is highly appreciated and will never be forgotten. Furthermore, I would like to thank Universiti Sains Malaysia especially School of Civil Engineering. It provides me the chance of studying on this research and all the facilities that I used in order to do this study. Next, I would like to take this opportunity to thank Nor Salmi and Siti Hajar that render me help in traffic count for two months in order to finish the thesis. I also thank for them to give me support during this period. For my family, first and foremost this thesis is special dedicated to my Abah and Mak who was really want me to pursue this Master Degree. Without you determination and support I will never come this far. Whatever I have done throughout this journey is only for you. To anyone whom I have forgotten, your help is very appreciated and only Allah can repay all your kindness. Sincerely thanks from me to all nameless and faceless people who have HELP me along the way. ii

ABSTRACT The transportation in Peninsular Malaysia includes public transport such as buses and trains and private transport such as motorcycles and cars. The emissions of Carbon Dioxide (CO 2 ) and Oxides of Sulphur (SO X ) vary directly with fuel consumption. The emissions of Carbon Monoxide (CO), Oxides Of Nitrogen (NO X ), Particulate Matter and Hydrocarbons vary in addition with the engine design, the air-to-fuel ratio, and vehicle operating characteristics, with an optimum speed usually in excess of 60 kilometres (km) per hour. At the signalized intersection, the amount of traffic emission are depend on the four mode elemental driving cycle consisting of cruise, acceleration, deceleration and idling time for specific traffic condition represented by traffic flow, traffic control and intersection geometry. The signalized intersection that designed according to the proper standard will minimize delay and optimize the junction capacity while the improper design geometry will increase the delay faced by road users. SIDRA Intersection 5.1 software was used in this study in order to investigate the vehicles emissions due to traffic volume and its delay time and the effect of traffic light junction s configuration during peak hour. There are six signalized intersection along the major road of Jalan Taiping and Jalan Abdul Raof in Parit Buntar will be investigated. The vehicles emission pollution that carried out for year 2010 were generated and compared with the current study in year 2011. Some improvement was proposed in this study in term of coordination between adjacent signal light controllers, left turn on red movement, providing proper signal phasing and signal time and minor geometrical modifications at the chosen signalized intersections. The result for each signalized intersection showed the significant reduction in the amount of vehicles emissions and average delay time. For signalized intersection between Jalan Taiping, Jalan Padang, and Jalan Lintang the percent of iii

reduction for fuel consumption, hydrocarbon, oxides of nitrogen and carbon dioxide approximately 42 % due to the reduction of delay time approximately 23% after the implementing minor geometry and signal phasing. Total fuel reduction for signalized intersection between Jalan Taiping and diversion from Shell petrol Station and signalized intersection between Jalan Abdul Raof and diversion Shell petrol Station showed the reduction in approximately 12% and 6% after the implementation of the signal time modification. Other than that, the reduction of fuel consumption at Jalan Taiping and Jalan perusahaan 17% after the implementation of the minor geometry and signal phasing modification. Lastly, reduction in fuel consumption and hydrocarbon more than 43 % compared to the hydrocarbon emissions in year 2010 at Jalan Taiping and Federal Route 1. iv

ABSTRAK Pengangkutan utama di Semenanjung Malaysia terdiri daripada pengangkutan awam seperti bas dan kereta api dan pengangkutan persendirian seperti kereta dan motorsikal. Pembebasan karbon dioksida (CO 2 ) dan oksida sulfur(so X ) berubah ubah secara langsung dengan penggunaan bahan bakar. Pembebasan karbon monoksida (CO), oksida nitrogen (NO X ), zarahan halus dan hidrokarbon berubah-ubah berdasarkan reka cipta engin, nisbah udara ke bahan bakar, dan ciri ciri operasi kenderaan dengan kelajuan optimum melebihi 60 Kilometer per jam. Di persimpangan bersignal, jumlah pembebasan pencemaran lalu lintas bergantung pada empat kitaran mod memandu yang terdiri daripada unsur berhenti dan menunggu di persimpangan lampu isyarat, pecutan, nyahpecutan halaju kenderaan, dan masa yang digunakan oleh kenderaan untuk tidak bergerak bagi keadaan lalulintas tertentu diwakili oleh arus lalu lintas dan geometri persimpangan. Simpang bersignal yang direka bentuk mengikut piawaian yang ditetapkan akan dapat meminumkan kelewatan dan mengoptimumkan kapasiti persimpangan sedangkan rekabentuk geometri yang tidak tepat akan meningkatkan kelewatan yang dihadapi oleh pengguna jalan raya. Dalam kajian ini terdapat enam simpang bersignal di sepanjang jalan utama iaitu Jalan Taiping dan Jalan Abdul Raof di Parit Buntar. Pembebasan pencemaran kenderaan yang terhasil untuk tahun 2010 akan dibandingkan dengan kajian semasa 2011. Beberapa penambaikan dicadangkan dalam kajian ini seperti koordinasi antara kawalan isyarat yang baik, pergerakan pusing ke kiri semasa lampu merah, menyediakan masa isyarat dan dan fasa isyarat yang betul dan sedikit penambaikan dari segi geometri persimpangan bagi persimpangan bersignal yang dikaji. Keputusan untuk setiap persimpangan bersignal menunjukkan penurunan yang signifikan bagi jumlah pembebasan v

pencemaran kenderaan dan kelewatan waktu. Untuk persimpangan bersignal antara Jalan Taiping, Jalan Padang dan Jalan Lintang peratus pengurangan untuk penggunaan bahan bakar, hidrokarbon, nitrogen oksida dan karbon dioksida sekitar 42% dan pengurangan masa kelewatan mencapai sekitar 23% setelah berlakunya perubahan minor geometri dan fasa isyarat. Jumlah pengurangan bahan bakar untuk persimpangan Jalan Taiping dan lencongan dari Stesen Minyak Shell dan persimpangan bersignal antara Jalan Abdul Raof dan lencongan daripada Stesen Minyak Shell menunjukkan pengurangan menghampiri 12% dan 6% selepas penambaikan perubahan pada fasa isyarat. Selain itu, pengurangan penggunaan bahan bakar di Jalan Taiping dan Jalan Perusahaan mencapai kepada 17% selepas penambaikan minor untuk geometri dan perubahan fasa isyarat. Akhir sekali, di persimpangan Jalan Taiping dan Jalan Persekutuan Utama, pengurangan terhadap penggunaan bahan bakar dan hydrocarbon adalah melebihi 43% berbanding pada tahun 2010. vi

TABLE OF CONTENTS Page ACKNOWLEDGEMENT ABSTRACT ABTRAK TABLE OF CONTENTS LIST OF FIGURES LIST OF PLATES LIST OF TABLES ii iii v vii xiv xxiii xxiv CHAPTER 1 : INTRODUCTION 1.1 General 1 1.2 Problem Statement 2 1.3 Objectives 3 1.4 Scope of study 3 1.5 Justification of the research 4 1.6 Contents of report 5 CHAPTER 2 : LITERATURE REVIEW 2.1 Introduction 6 2.2 Vehicles Emission 2.2.1 Nitrogen Oxides 2.2.2 Hydrocarbons and Carbon Monoxide 2.2.3 Contribution of Traffic Emissions to Ozone and Oxides of 7 8 8 Nitrogen vii

2.3 Factors Affecting Emission Rates 2.3.1 Diesel engine 2.4 Emission Standard of Pollutants for New Models of Motor 9 9 10 Vehicles on or After 1 January 1997 2.5 The Malaysian Petrol and Diesel Standards 11 2.6 Atmosphere Effects Of Transport- Related Air 12 2.7 Health Effects Of Transport- Related Air 2.7.1 Allergic Illness/ Symptoms Including Asthma 2.7.2 Lug Function 2.7.3 Cancer 13 15 16 16 2.8 Fuel Consumption 17 2.9 Signalized Intersection and Vehicles Emissions 18 2.10 SIDRA INTERSECTION 5.1 Software 19 2.11 Four Mode Elemental Model Applied in SIDRA 20 INTERSECTION 5.1. 2.12 Level of Service 23 2.13 Factors that Affect the Capacity 25 2.14 Terminology And Definition of Intersection 26 2.15 How To Optimize Traffic Emission 28 CHAPTER 3 : METHODOLOGY 3.1 Introduction 30 3.2 Site Selection 33 3.3 Data Collection 3.3.1 Traffic Volume Observation 36 viii

3.3.2 Geometry Measurement 3.33 Cycle time 39 40 3.4 Data Analysis 3.4.1 Passenger Car Unit (PCU) 40 3.5 Input dialogs in SIDRA INTERSECTION Version 5.1 3.5.1 Intersection 3.5.2 Volumes 3.5.3 Unit Time for Volumes 3.5.4 Saturation Flow 3.5.5 Optimum Cycle Time 3.5.5.1 Fixed-Time/Pretimed 3.5.5.2 Actuated 42 42 42 43 45 45 46 3.6 Fuel Consumption and Emissions 46 3.7 Operating Cost 48 3.8 Delay 50 CHAPTER 4: RESULT AND DISCUSSION 4.1 Introduction 52 4.2 Signalized Intersection between Jalan Taiping, Jalan Padang and Jalan Lintang. 4.2.1 Existing Condition 4.2.2 Proposed Improvement at Signalized Intersection between 52 55 Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. 4.2.3 Evaluation of Delays and Level of Service after Proposed 57 Improvement at Signalized Intersection between Jalan Taiping, Jalan Padang And Jalan Lintang in 2010 and 2011. ix

4.2.4 Evaluation of Average Fuel Consumption and Average 60 Pollutant Emissions at Signalized Intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2010 and 2011. 4.2.5 Evaluation of Maximum Fuel Consumption (L/hr) and 63 Maximum Pollutant Emissions (kg/hr) for Each Peak Hours at Signalized Intersection Between Jalan Taiping, Jalan Padang And Jalan Lintang in 2011 4.3 Signalized Intersection between Jalan Taiping and Diversion from Shell Petrol Station. 4.3.1 Existing Condition 4.3.2 Evaluation of Delays and Level of Service for Existing and 65 68 Improve Condition at Signalized Intersection between Jalan Taiping and diversion from SJKC Sin Hwa in 2011. 4.3.3 Evaluation of Average Fuel Consumption and Average 70 Pollutant Emissions at Signalized Intersection between Jalan Taiping and Diversion from SJKC Sin Hwa in Existing and Improved Condition in 2011. 4.3.4 Evaluation of Maximum Fuel Consumption (L/hr) and 71 Pollutant Emissions (kg/hr) for Each Peak Hours at Signalized Intersection between Jalan Taiping and Diversion from SKJC Sin Hwa in 2011 4.4 Signalized Intersection between Jalan Abdul Raof and diversion from SJKC Sin Hwa 4.4.1 Existing Condition 4.4.2 Evaluation of delays and Level of Service for existing and 74 77 x

improve condition at Signalized Intersection Between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011. 4.4.3 Evaluation of Average Fuel Consumption and Pollutant 78 Emissions at Signalized Intersection between Jalan Abdul Raof and Diversion from SKJC Sin Hwa in 2011 4.4.4 Evaluation of Maximum Fuel Consumption (L/hr) and 80 Maximum Pollutant Emissions (kg/hr) for Each Peak Hours at Signalized Intersection between Jalan Abdul Raof and Diversion from SKJC Sin Hwa in 2011 4.5 Signalized intersection between Jalan Taiping, Jalan Sekolah and Diversion from Bank Islam. 4.5.1 Existing Condition 4.5.2 Evaluation of Delays and Level of Service for Existing and 83 85 Improve Condition at Signalized Intersection between Jalan Taiping, Jalan Sekolah and Diversion from Bank Islam in 2011 4.5.3 Evaluation of Average Fuel Consumption and Average 87 Pollutant Emissions at Signalized Intersection between Jalan Taiping, Jalan Sekolah and Diversion from Bank Islam in 2011 4.5.4 Evaluation of Maximum Fuel Consumption (L/hr) and 88 Maximum Pollutant Emissions (kg/hr) for Each Peak Hours at Signalized Intersection Between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011 xi

4.6 Signalized Intersection between Jalan Taiping and Jalan Perusahaan. 4.6.1 Existing condition 4.6.2 Proposed Improvement for Traffic Light Junction at 91 93 Signalized Intersection Between Jalan Taiping and Jalan Perusahaan in Year 2011. 4.6.3 Evaluation of Delays and Level of Service for Existing And 95 Improve Condition at Signalized Intersection Between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011. 4.6.4 Evaluation of Average Fuel Consumption and Average 98 Pollutant Emissions at Signalized Intersection between Jalan Taiping and Jalan perusahaan in 2010 and 2011. 4.6.5 Evaluation of Maximum Fuel Consumption (L/hr) and 101 Maximum Pollutant Emissions (kg/hr) for Each Peak Hours at Signalized Intersection between Jalan Taiping, and Jalan Perusahaan in 2010 and 2011 4.7 Signalized Intersection between Jalan Taiping and Federal Route 1 4.7.1 Existing Condition 4.7.2 Proposed Improvement at Signalized Intersection between Jalan Taiping and Federal Route 1 in 2011. 4.7.3 Evaluation of Delays and Level of Service for Existing and 104 106 108 Improved Condition at Signalized Intersection between Jalan Taiping and Federal Route 1 in 2011. 4.7.4 Evaluation of Average Fuel Consumption and Average 112 Pollutant Emissions at Signalized Intersection between Jalan Taiping and Federal Route 1 in 2010 and 2011 xii

4.7.5 Evaluation of Maximum Fuel Consumption (L/hr) and 114 Maximum Pollutant Emissions (kg/hr) for Each Peak Hours at Signalized Intersection Between Jalan Taiping, and Federal Route 1 in 2010 and 2011 CHAPTER 5: CONCLUSION 5.1 Conclusion 5.2 Recommendation for future study 117 120 REFERENCES APPENDIX A PICTURE OF STUDY SITES xiii

LIST OF FIGURES Figure 2.1 Figure 2.2 Figure 2.3 Historical Carbon Oxide emissions from the transportation sector Health benefits from various scenarios with respect to based case scenario in Shanghai in 2010, 2015 and 2020 (Mean and 95% CI). Four mode elemental model used in SIDRA INTERSECTION 5.1 for modelling fuel consumption, pollutant emissions, cost and geometric delay Page 7 14 21 Figure 3.1 Flow chart of methodology 30 Figure 3.2 Sample geometric layout for traffic volume observation 39 Figure 3.3 Operation of the SIDRA Intersection 5.1 systems 41 Figure 3.4 Figure 4.1 Figure 4.2 Figure 4.3 Definition of delay experienced by a vehicle stopping at traffic signals Schematic geometric layout of the existing condition at intersection between Jalan Taiping, Jalan Lintang and Jalan Padang in 2011. Existing signal phasing for intersection between Jalan Taiping, Jalan Lintang and Jalan Padang in 2011. Schematic layout of the proposed improvement for signalized intersection between Jalan Taiping, Jalan Padang And Jalan Lintang in 2011. 50 53 54 56 xiv

Figure 4.4 Proposed improvement Signal Phasing at Signalized 57 Figure 4.5 Figure 4.6 Figure 4.7 Figure 4.8 Figure 4.9 Figure 4.10 Figure 4.11 Intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2010 and 2011 Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2010. Average pollutant emissions at signalized intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011 Average pollutant emissions at signalized intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2010 Existing maximum of fuel consumption (L/hr) for intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. Existing maximum of carbon dioxide emissions (kg/hr) for intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. Existing maximum of carbon monoxide emissions (kg/hr) for intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. 61 61 62 62 63 64 64 xv

Figure 4.12 Figure 4.13 Figure 4.14 Figure 4.15 Figure 4.16 Figure 4.17 Figure 4.18 Figure 4.19 Existing maximum of hydrocarbon emissions (kg/hr) for intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. Existing Maximum of oxides of nitrogen emissions (kg/hr) for intersection between Jalan Taiping, Jalan Padang and Jalan Lintang in 2011. Schematic geometric layout of the existing condition signalized intersection between Jalan Taiping and diversion from Shell Petrol Station in 2011. Existing signal phasing for intersection between Jalan Taiping and diversion from Shell Petrol Station in 2011. Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping and Diversion from SJKC Sin Hwa in 2011. Average pollutant emissions at signalized intersection between Jalan Taiping and Diversion from SJKC Sin Hwa in 2011. Existing maximum of fuel consumption (L/hr) for Intersection between Jalan Taiping and Diversion from SJKC Sin Hwa in 2011 Existing maximum of carbon dioxide emissions (kg/hr) for intersection between Jalan Taiping and Diversion from SKJC Sin Hwa in 2011. 64 65 66 67 70 71 72 72 xvi

Figure 4.20 Figure 4.21 Figure 4.22 Figure 4.23 Figure 4.24 Figure 4.25 Existing maximum of carbon oxide emissions (kg/hr) for intersection between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011. Existing maximum of hydrocarbon emissions (kg/hr) for intersection between Jalan Taiping and Diversion from SKJC Sin Hwa in 2011 Existing maximum of oxides of nitrogen emissions (kg/hr) for intersection between Jalan Taiping and Diversion from SKJC Sin Hwa in 2011. Schematic geometric layout of the existing condition signalized intersection between Jalan Abdul Raof and diversion from SJKC Sin Hwa in 2011. Schematic geometric layout of existing signal phasing at signalized intersection between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011. Average fuel consumption and pollutant emissions at signalized intersection between Jalan Abdul Raof and Diversion from SJKC Sin Hwa in 2011 72 73 73 75 76 79 Figure 4.26 Figure 4.27 Average pollutant emissions at signalized intersection between Jalan Abdul Raof and Diversion from SJKC Sin Hwa in 2011. Existing maximum of fuel consumption (L/hr) for intersection between Jalan Abdul Raof and diversion from SJKC Sin Hwa in 2011. 79 80 xvii

Figure 4.28 Figure 4.29 Figure 4.30 Figure 4.31 Figure 4.32 Figure 4.33 Figure 4.34 Figure 4.35 Existing maximum of carbon dioxide emissions (kg/hr) for intersection between Jalan Abdul Raof and diversion from SJKC Sin Hwa in 2011. Existing maximum of carbon monoxide emissions (kg/hr) for intersection between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011. Existing maximum of hydrocarbon emissions (kg/hr) for intersection between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011. Existing maximum of oxides of nitrogen emissions (kg/hr) for intersection between Jalan Abdul Raof and diversion from SKJC Sin Hwa in 2011 Schematic Geometric layout of the existing condition signalized intersection between Jalan Taiping, Jalan Sekolah and Diversion from Bank Islam in 2011. Schematic geometric layout of existing signal phasing at signalized intersection between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011 Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011. Average pollutant emissions at signalized intersection between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011. 81 81 82 82 83 84 87 88 xviii

Figure 4.36 Figure 4.37 Figure 4.38 Existing maximum of fuel consumption (L/hr) for Intersection between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011. Existing maximum of carbon dioxide emissions (kg/hr) for intersection Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011. Existing maximum of carbon monoxide emissions (kg/hr) for intersection Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011 89 89 89 Figure 4.39 Existing maximum of hydrocarbon emissions (kg/hr) for 90 Figure 4.40 Figure 4.41 Figure 4.42 Figure 4.43 Intersection between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011 Existing maximum of oxides of nitrogen emissions (kg/hr) for intersection between Jalan Taiping, Jalan Sekolah and diversion from Bank Islam in 2011. Schematic geometric layout of The existing condition signalized intersection between Jalan Taiping and Jalan Perusahaan in 2011 Schematic geometric layout of existing signal phasing at signalized intersection between Jalan Taiping and Jalan Perusahaan in 2010 and 2011. Schematic layout of the proposed improvement for signalized intersection between Jalan Taiping and Jalan Perusahaan in 2003 and 2007. 90 91 92 92 xix

Figure 4.44 Schematic layout of the proposed improvement for signalized intersection between Jalan Taiping and Jalan Perusahaan in 2011 97 Figure 4.45 Proposed improvement signal phasing at signalized 98 Figure 4.46 Figure 4.47 Figure 4.48 Figure 4.49 Figure 4.50 Figure 4.51 Figure 4.52 intersection between Jalan Taiping, and Jalan Perusahaan in 2010 and 2011 Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, and Jalan Perusahaan in 2011. Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, and Jalan Perusahaan in 2011 Average pollutant emissions at signalized intersection between Jalan Taiping, and Jalan Perusahaan in 2011. Average pollutant emissions at signalized intersection between Jalan Taiping, and Jalan Perusahaan in 2010. Existing maximum of fuel consumption (L/hr) for intersection between Jalan Taiping and Jalan Perusahaan in 2011. Existing maximum of carbon dioxide emissions (L/hr) for intersection between Jalan Taiping and Jalan Perusahaan in 2011. Existing maximum of carbon monoxide emissions (kg/hr) for Intersection between Jalan Taiping and Jalan Perusahaan in 2011 99 99 100 100 101 102 102 Figure 4.53 Existing maximum of hydrocarbon emissions (kg/hr) for 103 xx

Figure 4.54 Figure 4.55 Figure 4.56 Figure 4.57 Intersection between Jalan Taiping and Jalan Perusahaan in 2011. Existing maximum of oxides of nitrogen emissions (kg/hr) for intersection between Jalan Taiping and Jalan Perusahaan in 2011 Schematic geometric layout of the existing condition at intersection between Jalan Taiping and Federal Route 1 In Year 2011. Schematic geometric layout of the existing condition at intersection between Jalan Taiping and Federal Route 1 In 2011. Schematic layout of the proposed improvement for signalized intersection between Jalan Taiping and Federal Route 1 in 2011 103 104 105 107 Figure 4.58 Proposed improvement signal phasing at signalized 108 Figure 4.59 Figure 4.60 Figure 4.61 intersection between Jalan Taiping and Federal Route 1 in 2011 Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, and Federal Route 1 in 2011 Average fuel consumption and pollutant emissions at signalized intersection between Jalan Taiping, and Federal Route 1 in 2010 Average pollutant emissions at signalized intersection between Jalan Taiping, and Federal Route 1 in 2011 112 113 113 xxi

Figure 4.62 Figure 4.63 Figure 4.64 Figure 4.65 Figure 4.66 Figure 4.67 Average pollutant emissions at signalized intersection between Jalan Taiping, and Federal Route 1 in 2010 Existing maximum of fuel consumption (L/hr) for intersection between Jalan Taiping, and Federal Route 1 in 2011. Existing maximum of carbon dioxide emissions (kg/hr) for Intersection between Jalan Taiping, and Federal Route 1 in 2011. Existing maximum of carbon monoxide emissions (kg/hr) for intersection between Jalan Taiping, and Federal Route 1 in 2011. Existing maximum of hydrocarbon emissions (kg/hr) for intersection between Jalan Taiping, and Federal Route 1 in 2011. Existing maximum of oxides of nitrogen emissions (kg/hr) for intersection between Jalan Taiping, and Federal Route 1 in 2011. 114 115 115 115 116 116 xxii

LIST OF PLATES Plate 2.1 Plate 2.2 Location of selected sites along Jalan Taiping and Jalan Abdul Raof in Parit Buntar, Perak Darul Ridzuan in 2010 Location of selected sites along Jalan Taiping and Jalan Abdul Raof in Parit Buntar, Perak Darul Ridzuan in 2011 Page 35 35 xxiii

LIST OF TABLES Table 2.1 Table 2.2 Emissions Standard of For a diesel engine having a total mass exceeding 3.5 tonnes Emissions Standard of For a diesel engine having a total mass not exceeding 3.5 tonnes Page 10 11 Table 2.3 The Malaysian Petrol Standards 11 Table 2.4 The Malaysian Diesel Standards 12 Table 2.5 Motor Vehicular Level of Service (LOS) criteria at intersection according to HCM 2000 Method. 23 Table 2.6 Description of Level of service 24 Table 2.7 Factor affecting the saturations flow 25 Table 2.8 Definition of intersection related terminology 26 Table 3.1 Example Sheet Of The Traffic Count 37 Table 3.2 Classification of vehicles 38 Table 3.3 Passengers car equivalent (Arahan Teknik (Jln) 13/87- A Guide on Geometric Designs of Road) 41 Table 3.4 Basic saturation flows in through car units per hour. 44 Table 4.1 Table 4.2 Signal Timing For Existing Condition in 2010 and 2011 at Signalized Intersection Between Jalan Taiping, Jalan Padang And Jalan Lintang Peak Hour Traffic Volume in 2010 And 2011 at Signalized Intersection Between Jalan Taiping, Jalan Padang And Jalan Lintang 54 55 xxiv