TwoͲandͲThreeͲWheelersinIndia June2009 FINALREPORT InnovativeTransportSolutions(iTrans) Pvt.Ltd.,TBIU,IITDelhi,NewDelhi. For: InternationalCouncilforClean Transportation(ICCT) &TheInstituteforTransportand DevelopmentPolicy(ITDP) Final Report P a g e |2 TableofContents 1 Background...................................................................................................................7 2 AnIndustryOverview.................................................................................................12 2.1 3 4 5 DrivingForcesofTwoͲandͲThreeͲWheelerIndustries........................................14 GovernmentPoliciesTowardsTwoͲandͲThreeͲWheelers..........................................16 3.1 GovernmentIncentivePolicy..............................................................................17 3.2 TaxPoliciestowardsTwoͲandͲThreeͲWheelers.................................................18 RegulatoryFrameworkatPolicyandIndividualLevels..............................................19 4.1 RegulationsRelatedtoUsers.............................................................................19 4.2 RegulationsRelatedtoEmissions.......................................................................22 4.3 MethodstoEnforcetheEmissionRegulations...................................................25 4.4 CurrentFuelUsageandEmissions.....................................................................28 4.5 AlternativeFuelTechnologiesAvailable............................................................30 TrafficFlowsandCongestionData................................Error!Bookmarknotdefined. 5.1 TrafficFlows.......................................................................................................31 5.2 CongestionData.................................................................................................32 5.3 MeasuringTrafficFlows.....................................................................................33 5.4 RoadSpaceRequirementsandTravelTimeforDifferentModesofTrafficin DifferentTypesofLocations...........................................................................................39 6 TrafficDemandModelingMethodsSpecifictoTwoͲandͲThreeͲWheelersand HeterogeneousTraffic........................................................................................................46 6.1 CurrentModellingPracticesFollowedinIndia...................................................46 6.2 ErrorsinCurrentModelling,ApplicableforTwoͲandͲThreeͲWheelerTraffic....47 7 Road/IntersectionDesignGuidelines........................................................................49 8 ConflictswithOtherVehicles,BicyclesandPedestrians............................................53 9 SafetyDataandPreventionMeasures.......................................................................56 9.1 IndiainComparisonwithDevelopedCountries.................................................56 9.2 SituationinIndia................................................................................................57 9.3 FatalityIndexforVariousCities.........................................................................58 9.4 PreventionMeasures..........................................................................................60 10 ModeShareandModePreference............................................................................63 I nnov at iv e Tra nsport So lut ions Pv t . 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Final Report P a g e |3 10.1 ModeSharesofDifferentCategoryCities..........................................................63 10.2 TripLengthsofVariousCities.............................................................................64 10.3 AdvantagesProvidedbytheTwoͲWheelers......................................................64 10.4 ThreeͲwheelerModeShareandThreeͲwheelerIndexinVariousCities............65 10.5 TimeSeriesDataonTwoͲWheelerandThreeͲWheelerModeShare.................68 10.6 PurposeWiseTripsforVariousModes...............................................................73 11 Parking........................................................................................................................75 11.1 ParkingPolicy(NUTP).........................................................................................75 11.2 CityParkingPolicy..............................................................................................75 11.3 NewVehicleParkingSchemes............................................................................76 11.4 ExistingPracticesandDrawbacks......................................................................79 11.5 RecommendationsforFutureParkingStudies...................................................80 12 NoisePollutionandControlTechnologies..................................................................81 12.1 LegislationsonNoiseControlinIndia................................................................81 12.2 AmbientNoiseStandards(NoiseRules,2000anditsAmendments).................81 12.3 NoiseControlandRegulationProcedures..........................................................83 13 PolicyRecommendations............................................................................................85 13.1 SafeandEfficientUseofTwoͲWheelers............................................................85 13.2 SafeandEfficientuseofThreeͲWheelers...........................................................90 14 References..................................................................................................................91 I nnov at iv e Tra nsport So lut ions Pv t . 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Final Report P a g e |4 ListofFigures Figure1PercentDistributionofUrbanTripsbyMeansofTravelforSelectedIndian Cities,2006...........................................................................................................................9 Figure2GrowthofIndia'sMotorVehicleFleetbyTypeofVehicle,1981–2002(in Millions)................................................................................................................................9 Figure3SalesTrendsofDifferentVehicleTypes..............................................................13 Figure4VehicleCategoryWiseMarketShare(2007Ͳ08)..................................................14 Figure5RegulatoryFrameworkforAutomobilesinIndia.................................................20 Figure6TypicalCertificateIssuedafterPollutionCheck...................................................28 Figure7HomogeneousTraffic...........................................................................................41 Figure8NonͲHomogeneousTraffic(Delhi,India).............................................................42 Figure9ProportionofRoadUsersKilledandImpactingVehiclesonSampledNational Highways............................................................................................................................55 Figure10ProportionofVehiclesRegisteredinIndia,Germany,JapanandUSA..............56 Figure11ProportionofDifferentTypesofRoadUsersKilledinDelhi,Mumbai,National HighwaysinIndiaandinHighlyMotorisedCountries.......................................................57 Figure12ComparisonofThreeͲWheelerIndexofVariousCities......................................67 Figure13PeakͲHour,TwoͲWheelerVolumesatFiveIntersectionsSelectedinDelhi … …69 Figure14PeakͲHour,ThreeͲWheelerVolumesatFiveIntersectionsSelectedinDelhi....70 Figure15TwoͲWheelerModalSharesatFiveIntersectionsforFiveYearsinDelhi.........71 Figure16ThreeͲWheelerModalSharesatFiveIntersectionsforFiveYearsinDelhi.......72 I nnov at iv e Tra nsport So lut ions Pv t . 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Final Report P a g e |5 ListofTables Table1AutomobileProductionTrends............................................................................12 Table2AutomobileDomesticSalesTrends.......................................................................12 Table3DomesticMarketSharefor2007Ͳ08forVariousVehicles....................................13 Table4RoadUserTaxinDifferentStates(AsaPercentageofVehicleCost)...................19 Table5EmissionNormsforTwoͲandͲThreeͲWheelersinIndia(Fuel—Petrol)................23 Table6EmissionNormsforTwoͲandͲThreeͲWheelersinIndia(Fuel—Diesel)................23 Table7EmissionStandardsforinusePetrol/CNG/LPGDrivenvehicles...........................24 Table8EmissionStandardsforInͲUseDieselVehicles......................................................24 Table9CategoryWiseFuelConsumption/Day(inKiloLitres)..........................................29 Table10CategoryWiseEmissions/Day(inTons)..............................................................29 Table11TrafficFlowsandVehicularModalSplitsofSelectedCities................................31 Table12ExpectedAveragePeakͲhourVolumeͲCapacityRatioforCitiesbyCategory UnderDoNothingScenario...............................................................................................32 Table13PCUValuesatIntersections(IRCSP41:1994).....................................................34 Table14PCUValuesforMidBlocks(IRC106:1990).........................................................34 Table15ModalShareofTraffic(Chennai,2006)..............................................................35 Table16PCUValuesObservedatVariousVolumeLevels.................................................35 Table17PCUValuesDevelopedforTwoͲandͲThreeͲWheelersUnderVariousRoad Conditions..........................................................................................................................36 Table18PCUValuesofTwoͲWheelersatDifferentAreaOccupancyValues...................38 Table19PCUValuesfromIRC106:1990...........................................................................39 Table20CapacitiesofRoadsofVariousWidths................................................................40 Table21CapacityVsFlowObservedinDelhi....................................................................42 Table22PCUValuesfromIRC86:1983.............................................................................50 Table23PCUValues(IRCSP41:1994)..............................................................................51 Table24ConflictsofTwoͲandͲThreeͲWheelerswithOtherVehiclesisDelhi...................53 Table25ShareofMotorisedTwoͲWheelers(MTW)andThreeͲWheeledScooter Rickshaw(TSR)inIndianCities(14)....................................................................................58 Table26ProportionofRoadUsersKilledatDifferentLocationsinIndia.........................58 Table27AverageFatalitiesPerMillionPopulationPerYearinVariousCitiesinIndia...59 I nnov at iv e Tra nsport So lut ions Pv t . 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Final Report P a g e |6 Table28ModeShare(%)Ͳ2007(WithWalk)...................................................................63 Table29ModeShare(%)Ͳ2007(WithoutWalk)................................................................63 Table30AverageTripLengthsofDifferentCategoryCities..............................................64 Table31NumberofAutoRickshawsintheSelectedCities..............................................66 Table32AverageModalShareofTwoͲandͲThreeͲWheelersattheFiveIntersections 0bserved.............................................................................................................................72 Table33ModeSplitfortheWorkTripsofVariousCities..................................................73 Table34ModeSplitfortheEducationTripsofVariousCities..........................................73 Table35ModeSplitfortheSocialandRecreationTripsofVariousCities........................74 Table36EquivalentCarSpace(ECS)byTypeofVehicle...................................................76 Table37NoiseLimitsforVariousLandͲUsePatterns........................................................82 Table38NoiseLimitsforTwoͲandͲThreeͲWheelersofDifferentEngineTypes...............82 Table39NoiseLevelsNearHospitalsinDelhi...................................................................83 I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e |7 1 Background India,likeotherdevelopingcountries,ischaracterizedbyitsrisingpopulation,mounting urbanization and motorization, and low perͲcapita income. Its total urban population burgeonedoverthepastthreedecades,risingfrom109millionin1971to160millionin 1981(+47%),217millionin1991(+36%),and285millionin2001(+31%)(Census,2001). The largest cities have grown especially fast. By 2001, India had three mega cities: Mumbai(Bombay)with16.4millioninhabitants,Kolkata(Calcutta)with13.2million,and Delhi with 12.8 million. Chennai (Madras), Hyderabad, and Bangalore each had more than 5 million residents. And the populations of 35 metropolitan areas exceeded one millionresidentseach,almosttwiceasmanyasin1991(Census2001).Therapidgrowth of India's cities has generated a corresponding growth in travel demand and increased levelsofmotorvehicleownershipanduse. AsIndiancitieshavegrowninpopulation,theyhavealsospreadoutward.Alack of effective planning and landͲuse controls has resulted in rapid, rampant sprawl extending beyond old city boundaries and into the distant countryside. This greatly increased the number and length of trips for most Indians, forcing further reliance on motorizedtransport.Longertripsmakewalkingandcyclinglessfeasible,whileincreased motor vehicle traffic makes walking and cycling less safe. Most public policies in India encourage sprawl and new commercial development often takes place in distant suburbs. For example, Tidal Park is a software center on the outskirts of Chennai; GurgaonisalargenewindustrialareaoutsideDelhi;andPimpriͲChinchwadisacenter outsidePune(Bertraud,2002).Similarly,Bangaloreisplanningseveraltechnologyparks onitsfringeaswellasseveralcircumferentialhighwaysinthesuburbs,bothofwhichwill induce further decentralization. In most cases, there is inadequate transport infrastructure to serve these new suburban developments and the residences located around them. Ramachandran (1989) characterizes Indian suburbs as an “uncontrolled mixofindustrialdevelopment,dumpsandobnoxioususes,“withthe”extensionofurban settlement causing conditions in the overtaken villages to deteriorate, both physically and socially.“ This leapͲfrog development, typical of suburban sprawl, tends to follow majorhighwaysoutofIndiancitiestothedistantcountryside. LowͲdensity decentralization causes enormous problems for public transport. It generateslessfocusedtripsalongwellͲtraveledcorridorsand,thus,ismoredifficultfor transporttoserve.InIndia,ithasledtorapidgrowthincarandmotorcycleownership anduseandresultantcongestedroadwaysthatslowbuses,increasebusoperatingcosts, and further discourage public transport use. As cities grow and trip distances become I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e |8 longer, walking and cycling account for about half of all trips in mediumͲsized cities and about a third in the largest cities. considerable There is variation, however, even within cityͲ sizecategories.Amongmega cities, for example, walking and cycling are much less common in Mumbai than in Delhi, perhaps due to Mumbai's superior public transport system. Among smaller cities, Kanpur and Lucknow have much higher proportions of walking and cycling than Pune, which has a very high level of motorcycle ownership and TrafficCongestioninanIndianCity useduetoitslargemiddleclass,aswellasanextensivecharterbusservicesorganizedby Pune's industrial firms for their employees. By comparison, residents of Kanpur and Lucknow have lower incomes and a resultant much lower level of motorcycle use and minimal bus service. Instead, they rely on a mix of paratransit modes such as auto rickshaws, cyclerickshaws,jeep taxis, andtempos(largeautorickshaws).( J.Pucheret al.,2005). Asof2006,privatemotorizedtransport(mainlycarsandmotorcycles)accounted forasmallbutrapidlygrowingpercentageoftravel,about10–20%ofalltrips(seeFigure 1).Figure2dramatizestherapid16Ͳfoldgrowthofmotorcycleownershipbetween1981 and 2002. Private car ownership increased almost sevenͲfold during the same period. The sprawling, lowͲdensity development around Indian cities makes cars and motorcycles increasingly necessary, especially given the unsatisfactory alternative of slow,overcrowded,undependable,anddangerouspublictransportservices.Atthesame I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e |9 Figure1PercentDistributionofUrbanTripsbyMeansofTravelforSelectedIndianCities,2006. Modal Split of various cities 100% 90% IPT 80% 70% Car 60% Public transport 50% 2-Wheeler 40% 30% NMT 20% Walk Lucknow (2.24) Kanpur (2.72) Pune (3.76) Chennai (6.56) Bangalore (5.70) Ahmedabad (5.41) Mumbai (16.4) Kolkata (13.2) Delhi (12.9) 0% Hyderabad (6.38) 10% Source:VariousCDPSfromhttp://www.jnnurm.nic.in/nurmudweb/missioncities.htm time, rising incomes among India’s middle and upper classes make car and motorcycle ownership increasingly affordable. Cars which cost upward of $6,000 and motorcycles whichrequireanoutlayofaround$1,000arethetwomajorchoicesforprivatevehicle ownershipandservetwodifferentsectionsofthemarket.Levelofservice(comfort)and travel time are the principal priorities for those in the high income population group, while initial capital investment and operating costs are the major deciding factors for thoseinthemiddleincomeclass.Becauseofthis,carsandtwoͲwheelershaveseparate nichemarketsand,ingeneral,theyarenotcompetitors.TheTataNano,thenew$2,500 car launched by Tata, aims to capture some of the twoͲwheel market. However, its success will hinge on whether consumers are willing to pay its operational and maintenancecoststhataregreaterthanthoseofatwoͲwheeler. ThethreeͲwheelersontheotherhandprovideforthemobilityneedsofpeople not owning a private transport mode and inadequately served by the public transport system.Theyarediscussedindetailinthefollowingsection. ThreeͲwheeled scooter rickshaws (TSR) play an important role as paratransit modes in most cities in India. According to official statistics, 86,185 were registered in Delhiin2001.Thenumberregisteredin1996was80,208and87,785in1999 I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 10 Figure2GrowthofIndia'sMotorVehicleFleetbyTypeofVehicle,1981–2002(InMillions). (Source:J.Pucheretal.,TransportPolicy12(2005)185–198) Note:“OtherMotorized”includestractors,trailers,motorizedthreeͲwheelers(passenger vehicles)suchasautorickshawsandothermiscellaneousvehiclesthatarenotseparately classified. (Mohan et. al. 2003). It is estimated that the population of Delhi increased by 20% between 1996 and 2001, but the above statistics show that the availability of TSRs increased by only 7% in the same period. Also, they have unique safety and pollution problems. They have high emission levels but cannot be substituted easily by modern vans or buses because of economic and financial constraints. However, the threeͲ wheeledscootertaxisarenowcomingequippedwithfourͲstrokepetrolenginesorCNG engineswhichmakeemissionsperpassengerlessthanthoseofcars.Yet,researchinto safety, efficiency and environment friendly technologies for these vehicles is not a priorityinIndiaoranyothercountry. According to Mohan and Roy (2003), TSRs should be the preferred personal transportation mode and should be encouraged in urban areas provided they run on LPG/CNG or fourͲstroke petrol engines equipped with catalytic converters. Ample availabilityofTSRs(andtaxis): x EncouragespublictransportusewhichcaneasilygetpassengersfrompointͲtoͲpoint inahurry x EncouragesnonͲownershipofprivatevehiclesbecausepointͲtoͲpointtransportation iseasilyavailableforspecialoccasions. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 11 AThreeͲWheelRickshawinNewDelhi x TSR/taxi drivers do not cheat when supply is abundant and fare structure is reasonable,sopassengersarenotscaredofhasslesandarguments. GreateruseofTSRsreducestheneedforparkingplaces.Aprivatecarneedsaminimum of two parking places – one at home and one at its destination. Whereas, a TSR just needsoneparkingplaceinthecityandifitdoes10tripsaday,itreducestheneedfor nineparkingplacesathomeandthedestination. A TSR is preferable to a car, can carry the same number of people on average, takes oneͲthird the parking area and one half of the space on the roadway. Since its weight is oneͲthird of that of a car, it is responsible for less deterioration to the road, requireslesstire/rubberuse,andtakesoneͲthirdthenationalresourcestoproduce.All this reduces indirect pollution. Since TSRs have a small engine (175 cc vs. 800 cc for Maruti), they pollute much less per passenger than most cars. Their small engine size holds speeds to roughly 50 km/h, in keeping with urban speed limits. This also helps control the speeds of others. Because of lower speeds and lighter weights, they can’t easily produce fatal accidents among pedestrians and bicyclists. Therefore, TSR use shouldbeencouragedasmuchaspossibleinurbanareasofIndia. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 12 2 AnIndustryOverview ThemotorvehicleindustryinIndiaunderwentaseaofchangeduring1985Ͳ1991 wheneconomicreformsaimedatencouragingcompetitionwereintroduced.Duringthis period,thetwoͲwheelerindustrysawthelargestproliferationofbrandsintheconsumer durables industry. From then on the rate of growth of twoͲwheelers increased rapidly overthenexttwodecades.(Pucheretal,2005). Thefollowingtablesshowtheproductionandsalestrendsofvariousautomobiles inIndia. Table1AutomobileProductionTrends YearofObservation,(NumberofVehicles) 2005Ͳ06 Category 2002Ͳ03 2003Ͳ04 2004Ͳ05 2006Ͳ07 2007Ͳ08 Passenger 723,330 989,560 1,209,876 1,309,300 1,545,223 1,762,131 203,697 275,040 353,703 391,083 519,982 545,176 276,719 356,223 374,445 434,423 556,126 500,592 Vehicles Commercial Vehicles ThreeͲ wheelers TwoͲ 5,076,221 5,622,741 6,529,829 7,608,697 8,466,666 8,026,049 wheelers GrandTotal 6,279,967 7,243,564 8,467,853 9,743,503 11,087,997 10,833,948 Source:http://www.siamindia.com/ Table2AutomobileDomesticSalesTrends YearofObservation,(NumberofVehicles) 2005Ͳ06 Category 2002Ͳ03 2003Ͳ04 2004Ͳ05 2006Ͳ07 PassengerVehicles 707,198 902,096 1,061,572 1,143,076 1,379,979 1,547,985 CommercialVehicles 190,682 260,114 318,430 351,041 467,765 486,817 ThreeͲwheelers 231,529 284,078 307,862 359,920 403,910 364,703 TwoͲwheelers 4,812,126 5,364,249 6,209,765 7,052,391 7,872,334 GrandTotal 5,941,535 6,810,537 7,897,629 8,906,428 10,123,988 9,648,094 Source:http://www.siamindia.com/ Thesalestrendsshownabovehavebeenrepresentedinthefollowingfigure. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . 2007Ͳ08 7,248,589 Final Report P a g e | 13 Figure3SalesTrendsofDifferentVehicleTypes From the total numbers, the percentage share of each vehicle type is calculated and presentedinthefollowingtable. Table3DomesticMarketSharefor2007Ͳ08forVariousVehicles VehicleTypeMarketShare CVs 5.05% TotalPassengerVehicles 16.4% TotalTwoͲwheelers 75.13% ThreeͲwheelers 3.78% Source:http://www.siamindia.com/ Thefollowingfiguregivestheabovedataasapiechart. Final Report P a g e | 14 Figure4VehicleCategoryWiseMarketShare(2007Ͳ08) DomesticSales ThecumulativegrowthofthepassengervehiclesegmentbetweenMarchandApril2007 was 20.70%. Passenger cars grew by 22.01%, utility vehicles by 13.21% and multiͲ purposevehiclesby25.20%infiscalyear2006Ͳ07. Thecommercialvehiclessegmentgrewby33.28%.Growthofmediumandheavy commercial vehicles was 32.84% and light commercial vehicles recorded a growth of 33.93%. ThreeͲwheelers sales grew by 12.22% with sales of goods carriers increasing by 13.52%andpassengercarriersby11.33%duringMarchandApril2007comparedtothe correspondingperiodthepreviousyear. ThetwoͲwheelermarketgrewby11.42%duringMarchandApril2007overthe same period last year. Motorcycles grew by 12.79%, scooters by 3.48%, and mopeds registeredagrowthof6.95%. (Source:www.siamindia.com) 2.1 DrivingforcesofTwoͲandͲThreeͲWheelerIndustries ThemarketfactorsthatdrivedemandandinfluencecustomerpreferencesfortwoͲandͲ threeͲwheelersarediscussedbelow. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 15 TwoͲWheelers Three major forces have bearing on this industry: the manufacturers, financial institutions and the regulators (Ministry of Environmental Regulations and civil society groups). Manufacturers: Producers launch various models and lobby government to provide betterfacilitiesfortwoͲwheelers. FinancialInstitutions:Thesefirmsdrivethemarketbycreatinglowinterestloanswhich inturnallowmorepeopletopurchasetwoͲwheelers. MinistryofEnvironmentRegulationsandCivilSocietyGroups:Therearenoregulations on twoͲwheeler ownership/sales in a city with the exception of rules governing emissions.India’semissionnormsareamongthemoststringentintheworld(Iyer,BAQ, 2008).Therefore,theMinistryofEnvironmentalRegulations,whichsetsemissionnorms, andcivilgroupslikeCentreforScienceandEnvironmentandothersuchNGOsthatlobby forstricternormsalsoadduptothedrivingforcesoftheindustry. ThreeͲWheelers ThethreeͲwheelerscatertothemobilityneedsofthosenotusingprivatetransportand not being served by the existing public transport system. In this way, they serve the needs of a section of the society by acting as cheap taxis. They have smaller engine capacitiesandhighermileageratesthantheregularcartaxis. ThemajordrivingforcebehindthethreeͲwheelersisthepolicymakerswhodecide various issues, such as the total number allowable in the cities and fare policies, etc. There is a general tendency among policy makers in various Indian cities to phase out threeͲwheelerswhichtheyseeascompetitiontopublictransport,airpolluters,slowand unsafe. This informal transport alternative is not always backed by sufficient data to counter these claims. Also, the fact that threeͲwheelers cater towards mobility of a particularsectionofthepopulation(i.e.,thosenotusingprivatetransportortheexisting publictransportsystem)isalsoignoredwhileformingthepolicies. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 16 3 GovernmentPoliciesTowardsTwoͲandͲThreeͲ Wheelers Indiaisafederalstate,whichmeansthatthetotalpowersonvariouspolicymattersare sharedbetweenthecentralornationalgovernmentandthestates.Generally,policieson variousissuesaredevelopedbythecentralgovernment,butimplementedbythestates. Regulating a particular mode of transport by specifying limits in a city, such as implementing helmet laws or regulating emissions, are in the hands of the state government,resultinginvaryingpoliciesfromstatetostate. The transport sector policies in India are made by two ministries of the government: 1. MinistryofShipping,RoadTransport&Highways(MoSRT&H) 2. Ministry of Urban Development and Poverty Alleviation (under whichUrban transportisasubdivision) In the various policies of these ministries, no specific guidelines for twoͲandͲthreeͲ wheelersarementioned.Rather,thepolicymeasuresareaimedatincreasingmobilityby encouragingpublictransportandnotencouragingtheuseofprivatemodesoftransport (NUTP,2005).SincetwoͲwheelerscomeunderthecategoryofprivatelyownedvehicles, the policies are indirectly designed to discourage twoͲwheeler usage. Among private transportrules,nospecificpreferenceforatwoͲwheeleroveracaroracaroveratwoͲ wheelerismentioned.TwoͲwheelershavebenefitsintermsofroadspace,cost,mobility and release of green house gases. However, safety, emissions and equality of the problemsassociatedwithtwoͲandͲthreeͲwheelersneedtobeaddressed. ThreeͲwheelers in India act as intermediate public transport (IPT), a feeder systemtopublictransportinlargecities.Theyaretheonlyavailabletransportforpeople notowningvehiclesinplaceswherepublictransportisunavailable.Asuccessfulpublic transport system with high ridership requires a good network of threeͲwheelers. However, the policy guidelines of the ministry of urban development (as given in the NationalUrbanTransportPolicy(NUTP),2005)encouragepublictransportwhileignoring any mention of threeͲwheelers. The policies of other ministries such as issuing lowͲ interest loans to the poor are encouraging people to buy more threeͲwheelers as employment opportunities. The following sections discuss the various government incentivesandthetaxpoliciestowardtwoͲandͲthreeͲwheelers. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 17 3.1 GovernmentIncentivePolicy Incentives are provided in the form of low interest loans to buy new vehicles. The government,throughvariouspublicsectorbanks,givesloanstopeopleatinterestrates about half to oneͲthird less than that of private financiers. The various policies of the governmenttowardthevehicleloansareexplainedbelow. TwoͲwheelerLoans Aloanofupto90%oftheonͲroadpriceofthevehicleorRs.60,000,whicheveris less,canbereceivedataninterestrateof13.25to16.25%.Therepaymentperiodvaries from1to5years,basedontheinterestrate.Theeligibilitycriterionforthisisthatthe grossannualincomeofthepersongettingtheloanshouldnotbelessthanRs.60,000/Ͳ. FourͲwheelerLoans A loan of up to 90% of the onͲroad price of the vehicle or three years gross income of the loan seeker, whichever is less, can be borrowed from banks at interest ratesof11.75to13.5%,dependinguponthebank.Thelifeoftheloanvariousfrom1to 6yearsbasedontheinterestrate.Theeligibilitycriterionisagrossannualincomenot lessthanRs.1,00,000/Ͳandalso,thepersonclaimingtheloanshouldhavearesidential telephoneintheirname. In the case of secondͲhand fourͲwheelers, loans are given only for vehicles less thanthreeyearsold.ThemaximumamountoftheloanisRs.5.00lakhs.Themaximum repaymentperiodisfiveyears. ThreeͲwheelerLoans The loan policies for threeͲwheelers are similar to the ones for two and fourͲ wheelers.However,asameasureofpovertyalleviationandemploymentgeneration,the governmenthaswaivedtherequirementofsecuritydepositsfortheunemployedpoor,if theyprovidetheappropriateincomecertificate.ThishasleadtoanincreaseinthethreeͲ wheelerownershipofpeoplewithlowincomes. IncentivestoWomen Toimprovethestandardoflifeforwomen,thegovernmentprovidesloansata special interest rate 1% less than that charged men. The rest of the requirements are identical. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 18 AFourͲWheelRickshaw PrivateFinanciersandGrievancesofThreeͲWheelerOwners Theinterestratesonloansreceivedfromprivatefinanciersisintherangeof30 to40%,buttherequirementsforobtainingaloanarelessstringentthanthatofferedby publicsectorbanks.Also,publicsectorbanksdonotloanmoneyforsecondͲhandthreeͲ wheelers.Therefore,anyonewantingtobuyanewthreeͲwheelershouldfirstbuyanold oneandexchangeitforanewone.Ingeneralthesecondhandortheoldvehiclecosts aroundRs.100,000/ͲandanewonecostsaroundRs.300,000/Ͳ.Also,thistransactionis done through private dealers who charge around Rs.25,000 to Rs. 50,000. Hence the totalcosttobuyanewthreeͲwheeleraddsuptoaboutRs.450,000.Outofthis,loans fromthepublicsectorbanksaregivenonlyforthenewvehicle,i.e.,Rs.100,000/Ͳ.This practiceforcespeoplebuyingthreeͲwheelerstoobtainloansfrom privatefinanciersat high interest rates. As a result, operators who own a fleet of threeͲwheelers and rent themeverydayfinditeasiertobuynewthreeͲwheelersthanindividualswantingtobuy theirown. 3.2 TaxPoliciesTowardsTwoͲandͲThreeͲWheelers TheroaduserͲtaxontwoͲandͲthreeͲwheelersiscontrolledbystategovernmentswhich eachhavedifferentrates.StatescollecttheroadusertaxfortwoͲwheelersasalump sumforaperiodof15yearsatthetimeanewvehicleisregistered.Somestatescollect I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 19 Table4RoadUserTaxinDifferentStates(AsaPercentageoftheVehicleCost) State 2ͲWheelerTax 3ͲWheelerTax AndhraPradesh 9% 9% Delhi 2% 2% Karnataka 9% 9% MadhyaPradesh 5% 6% Orissa 5% 5% Punjab <50cc 1.50% >50cc 3% Rs150/Yr UttarPradesh Rs1600(around4%) Rs380/Yr TamilNadu 6% Rs280/Yr Bihar Rs900Ͳ1500* Rs990Ͳ1920* *ͲͲExactamountdependsontheweightofthevehicle Source:http://www.morth.nic.in/related_catmain.asp?rellinkid=27&langid=2 taxonthreeͲwheelersonayearlyorquarterlybasis.Thefollowingtablegivesthetaxin someselectedstates,togetanideaofthevariationsintaxcollectedindifferentstates. A vehicle registered in one state which later needs to operate in a different state is subjecttothatstate’sregistrationandroadusertax. 4 RegulatoryFrameworkatPolicyandIndividualLevels Theregulatorypoliciesdevelopedbythecentralgovernmentwillbediscussedin section4.1.Theremainingsectionsdiscusstheireffectonindividualusers. 4.1 RegulationsRelatedtoUsers InIndia,therulesandregulationsrelatedtodrivinglicenses,motorvehicleregistration, traffic control, construction and maintenance of motor vehicles, etc., are governed by theMotorVehiclesAct1988(MVA)andtheCentralMotorVehiclesRules1989(CMVR). The Ministry of Shipping, Road Transport and Highways (MoSRT&H) acts as a nodal agencytodeviseandimplementprovisionsoftheMotorVehicleActandCMVR. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 20 Figure5RegulatoryFrameworkforAutomobilesinIndia Source:http://www.siamindia.com/scripts/regulatoryframework.aspx Inordertoinvolveallstakeholders,MoSRT&Hhasestablishedtwocommitteestoadvise onissuesofsafetyandemissions,namely: x CMVRͲTechnicalStandingCommittee(CMVRͲTSC) x StandingCommitteeonImplementationofEmissionLegislation(SCOE) CMVRͲTechnicalStandingCommittee(CMVRͲTSC) ThiscommitteeadvisesMoSRT&HontechnicalaspectsrelatedtoCMVR.Itiscomprised ofrepresentativesfromvariousorganizations,includingtheMinistryofHeavyIndustries and Public Enterprises (MoHI&PE), MoSRT&H, Bureau Indian Standards (BIS); testing agencies such as Automotive Research of India (ARAI), Vehicle Research Development and Establishment (VRDE), Central Institute of Road Transport (CIRT); industry representatives from Society of Indian Automobile Manufacturers (SIAM), Automotive Component Manufacturers Association (ACMA) and Tractor Manufacturers Association (TMA); and representatives from state transport departments. Major functions of the committeeare: x To provide clarity and interpret the central motor vehicle rules which have technicalbearingonMoRT&H. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report x P a g e | 21 To recommend international/foreign standards that the government can use in lieu of those set out under the CMVR permit use guidelines for components/parts/assemblies. x Tomakerecommendationsonanyothertechnicalissueshavingdirectrelevance totheimplementationoftheCentralMotorVehicleRules. x To recommend new safety standards for components for notification and implementationunderCentralMotorVehiclesRules. x Tomakerecommendationsonleadtimeforimplementingsafetystandards. x TorecommendchangesinCentralMotorVehicleRulesinviewofmodificationsin automobiletechnologies. CMVRͲTSC is assisted by another committee called the Automobile Industry Standards Committee (AISC), comprised of members from various stakeholders, in drafting technicalstandardsrelatedtosafety.Thecommittee’smajorfunctionsare: x Preparenewsafetystandardsforautomotiveitems x Reviewandrecommendamendmentstoexistingstandards x RecommendadoptionofsuchstandardstoCMVRTechnicalStandingCommittee x Recommendcommissioningoftestingfacilitiesatappropriatestages x Recommend the necessary funding of such facilities to the CMVR Technical StandingCommittee,and x AdviseCMVRTechnicalStandingCommitteeonanyotherreferredissues The National Standards for Automotive Industry are prepared by Bureau of Indian Standards (BIS). The standards formulated by AISC are also converted into Indian Standards by BIS. The standards formulated by both BIS and AISC are considered by CMVRͲTSCforimplementation. (http://www.morth.nic.in/index2.asp?langid=2&sublinkid=204) StandingCommitteeonImplementationofEmissionLegislation(SCOE) Thiscommitteeconsidersissuesrelatedtoemissionregulations.Itsmajorfunctionsare: x Todiscussfutureemissionnorms x TorecommendnormsforinͲusevehiclestoMoSRT&H x Tofinalizethetestproceduresandtheexecutionstrategyforemissionnorms x AdviseMoSRT&Honanyissuerelatingtoimplementingemissionregulations. BasedontherecommendationsfromCMVRͲTSCandSCOE,MoSRT&Hissuesnotification fornecessaryamendments/modificationsintheCentralMotorVehicleRules. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 22 Inaddition,otherministries,includingMinistryofEnvironment&Forest(MoEF),Ministry ofPetroleum&NaturalGas(MoPNG)andMinistryofNonͲconventionalEnergySources, arealsoinvolvedinshapingregulationsgoverningemissions,noise,fuelsandalternative fuelvehicles. These are policies of the government and hence affect users at aggregate levels. Regulations related to individual users are explained in following sections. Emission regulations on new and in use vehicles are detailed initially, followed by methods of enforcement.Theactualemissionsareexplainedinsection4.4.Aftertheregulationsare inplaceandiftheemissionscannotbeadequatelycontrolled,alternativetechnologies mustbeexplained.Thoseavailabletechnologiesarediscussedinsection4.5. 4.2 RegulationsRelatedtoEmissions Since the twoͲwheelers (75% in 2007Ͳ08) and threeͲwheelers (4% in 2007Ͳ08) constituteabout80%ofthetotalnumberofvehiclesinIndia,theiremissionsalsoforma significant proportion of total vehicle pollution. The primary pollutants are particulate matter,hydroͲcarbonsandnitrogenoxide.Leftunchecked,thesepollutantscanproduce serioushealthconsequences. EmissionStandardsbytheGovernment The emission standards were first adopted in 1991 and have been continuously upgradedsincethen.Thefirstmajorrevisionoccurredin1996,thesecondin2000,the thirdin2005andthenextin2010. The following table provides the chronological order of emission standards and alsovariouspollutants.Thesenormsarefornewvehicles. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 23 Table5EmissionNormsforTwoͲandͲThreeͲWheelersinIndia(Fuel—Petrol) YEAR PETROL2ͲW PETROL3ͲW CO HC+Nox CO HC+Nox 1991 12to15 8to9 30 12 1996 4.5 3.6 6.75 5.4 2000 2 2 4 2 2005* 1.5 1.5 2.25 2 2010* 1 1 1.25 1.25 *DF 1.2 1.2 1.2 1.2 DF*:DeteriorationFactor,Note:Allunitsareingm/km (Source:N.V.Iyer,ManagingTwoͲandThreeͲWheelerEmissionsͲͲNationalWorkshopontheImprovement ofUrbanAirQualityofPakistan,13Ͳ15December,2004,Lahore,Pakistan) Table6EmissionNormsforTwoͲandͲThreeͲWheelersinIndia(Fuel—Diesel) YEAR DIESEL2and3Wheelers COHC+NoxPM 1991 14.3 20 1996 5 2 2000 2.75 0.97 0.14 2005* 1 0.85 0.1 2010* 0.5 0.5 0.05 *DF 1.1 1 1.2 DF*:DeteriorationFactor (Source:N.V.Iyer,ManagingTwoͲandͲthreeͲwheelerEmissionsͲͲͲNationalWorkshopontheImprovement ofUrbanAirQualityofPakistan,13Ͳ15December,2004,Lahore,Pakistan) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 24 Thefollowingtablesgivethestandardstobefollowedbyvehiclesalreadyinuse. Table7EmissionStandardsforInͲUsePetrol/CNG/LPGDrivenVehicles VEHICLETYPE CO,%vol 2&3 wheelers (2/4Ͳstroke), 4.5 HC,ppm 9000 preͲ2000 2&3 wheelers (2Ͳstroke), 3.5 6000 postͲ2000 2&3 wheelers (4Ͳstroke), 3.5 4500 postͲ2000 Bharat Stage II compliant 4Ͳ 0.5 750 wheelers 4Ͳwheelers other than 3 1500 BharatStageIIcompliant (Source:N.V.Iyer,EnvironmentFriendlyVehicles–theIndianExperienceͲ,NationalWorkshoponUrban Air Quality Management and Integrated Traffic Management for Karachi, September 13 Ͳ 14, 2006, Karachi.) Table8EmissionStandardsforInͲUseDieselVehicles Methodoftest Maximumsmokedensity Lightabsorptioncoefficient, (1/m) HartridgeUnits Freeaccelerationtestfor turbochargedengineand 2.45 65 naturallyaspiratedengine (Source:N.V.Iyer,EnvironmentFriendlyVehicles–theIndianExperienceͲ,NationalWorkshoponUrban Air Quality Management and Integrated Traffic Management for Karachi, September 13 Ͳ 14, 2006, Karachi.) Maximumlimitsforcriticalingredientslikebenzeneinpetrolhavebeenspecifiedat5% m/minthecountryand3%inthemetropolitanareas.Toaddresstheexcessivepollution inthefourmetrocitiesofDelhi,Mumbai,KolkataandChennai,0.05%sulfurcontentin petrolanddieselhasbeensetsince2000Ͳ2001.Thebenzenecontenthasbeenfurther reducedto1%inDelhiandMumbai. Theseprogressivelyrigidstandardsresultedinsignificanttechnologicaladvancesandthe introductionofexceedinglylowemissionvehicles.Thisarrestedfurtherdeteriorationof I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 25 air quality, but resulted in insignificant reductions in ambient pollution levels of PM10 andCO.(Note:SignificantcontributionsofPM10comefromdieselvehiclesandCOfrom passengercars) Also, the benefits obtained from cleaner, new vehicles are negated by the pollution contributedbylargenumbersofoldervehiclesthatarepoorlymaintainedandhaveno emissioncontrols(Source:N.V.IYER,2001). 4.3 Methodstoenforcetheemissionregulations Twolevelsofchecksareneededtoensurethattheabovementionedstandardsaremet: 1. Verifythatvehiclemanufacturersarecomplyingwithemissionstandards 2. Confirmthatownersaremaintainingtheirvehiclesuptotherequiredstandards Theenforcementmethodologyisexplainedinthissection. 1. Checkonthemanufacturers: Thisisgenerallydoneinthefollowingways: TypeApprovalandConformityofProduction(COP)Tests Thesetestsaredoneoneachvehiclecomingoutofthemanufacturingplanttoensure tail pipe emission standards are being met. Once new vehicles are sold, emission tests arenotrequiredforthefirstyear. TypeApprovalTests Allnewvehiclesneedatypeapprovalcertificatestatingthatthemodelisamongthose listedinRule126(A)oftheCentralMotorVehicleRules(CMVR),1993.Thistestneedsto be carried out by a governmentͲrecognized testing agency (eg iCAT in Manesar, Haryana). ConformityofProduction(COP)Test ThesameagencythatdoesthetypeapprovalgenerallydoestheCOPtest.However,the manufacturercangotoanotheragencyifdesired.TheCOPperiodforavehicle/engine modeliseverysixmonthsfromApriltoSeptemberandOctobertoMarch,orproduction of 25,000 vehicles/engines if the vehicles are anything other than twoͲandͲthreeͲ wheelers. However, if production of a model including its variants in a year (i.e. two consecutive COP periods of six months each) is less than 5,000 in the case of other vehicles(otherthantwoorthreeͲwheelers)theCOPintervalshallbeoneyear. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 26 The sampling size is one day’s average production, subject to a minimum of 10 and maximum of 100. For lowͲvolume production vehicles (<250 numbers in six months) sampling size shall be minimum 5 numbers for Bharat Stage II/ Bharat Stage III vehicles/engines.IncaseofCBUBharatStageII/BharatStageIIIvehicles,whereimport islessthan5numbersatatime,thesamplesizemaybelimitedtothree. If the vehicle/engine meets the requirements of COP, the test agency issues a COPcertificatetothemanufacturer.Thecertificatewillcoverthevehicle/enginemodel anditsvariantsplannedorproducedduringtheCOPinterval.Thetestagencywillalso sendthecopiesofthecertificatetoothertestingandnodalagencies. If the vehicle/engine fails to meet the requirements, the testing agency sends copies of the test report to the nodal agency and the manufacturer.The nodal agency makesadecisionandconveysittothemanufacturerandtestagencieswithinfourweeks of its report and after calling for a standing committee meeting to advise the nodal agency.Thevehicle/enginemanufacturergetsanopportunitytoappealhiscasebefore thecommittee.Basedoncommitteerecommendations,thenodalagencymaywithdraw thetypeapprovalcertificateandissueastopͲworkorderonthevehicles/engines. FuelEconomyLabelingofVehicles Fuel economy labels are affixed to manufactured products to describe energy performance(usuallyintheformofenergyuse,efficiency,orenergycosts).Theselabels giveconsumerstheinformationnecessarytomakeinformedenergyefficientpurchases. InIndiathisisonlymandatoryforafewitemslikeairconditionersandrefrigeratorsbut notforvehicles.Inthecaseofvehiclesa“voluntarydisclosureoffueleconomy”method is followed. The vehicle manufacturer displays the fuel economy label along with the vehicle’smodelname,fuelused(Petrol/Diesel/CNG)andthemileage(certifiedkmper litre). StandardTestConditions Approved agencies conduct tests on all the vehicles under "standard test conditions". Amongmanyparameters,standardtestconditionsinclude:twopersonsinthecar/twoͲ wheeler, air conditioning switchedͲoff (for cars); standard (nonͲadulterated) fuel; gear changesinapredeterminedpatternandatpredeterminedaccelerationlevels;standard airpressureinthetires;windspeed;etc.Testconditionsatthecertificationagencyare identicalforallvehicles,irrespectiveofmanufacturer,sothecustomercanmakecorrect comparisons of fuel efficiency, across car models. Some test centers like iCAT are I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 27 authorizedtocarryoutthesetestsandonlylabelingdonethereisvalid(MarutiSuzuki IndiaLimited,2008). 2. CheckontheUsers The following measures have been adopted for the inͲuse vehicles. (Source: N. V. Iyer,2006,Karachi) SoundInspection&MaintenanceProgram TocheckthatthevehiclesareobservingtheprescribednormsthePUC(Pollutionunder Control)certificateismandatoryforallthevehicles.Allvehiclesarerequiredtopassan emissioninspectioneveryyearandobtainacertificatethatstatesallemissionstandards arebeingmet. ThePUCcertificateisissuedafterthefollowingprocedure: Statetransportdepartmentsauthorizesomeemissionscheckingcentersinvariouscities. Thesearegenerallyplacedinfuelfillingstationsormobilevansthatcontaintherequired equipmentfortesting.ThepricechargedforthisisnominalatRs.35/Ͳ(lessthan$1U.S.). Figure6showsanexampleofatypicalPUCcertificateissuedinDelhi.Eventhoughthe certificate is for 2004, the same procedure is still followed even with exceptions for changesintheprescribedstandards. Thiscertificateisvalidforoneyear.Adatedphotographofthevehiclesnumberplate is placed on the certificate as a benchmark for calculating the mandatory oneͲyear period.Ifthemeasuredlevelofpollutionfromthevehicleisgreaterthantheprescribed limit, the owner is supposed to get the vehicle repaired and apply for a new PUC certificate. – However, the present system has the following failings and hence needs to be improved: o No government supervision of the large number of privately owned centers o Noqualityassurancetoverifycorrectnessofcertificates,testequipment notcalibratedperiodically o Certificateissuingsystemnotfoolproof o Fraudulentpracticesfollowedbymanycenters,certificatesissuedwithout testing o Testcentersareallowedtocarryoutrepairs;thiscreatesvestedinterests o Noisepollutioncausedbythevehiclesisuncheckedduringthetest. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 28 Figure6TypicalcertificateIssuedAfterPollutionCheck IntroductionofPreͲMixedTwoͲStroke(2ͲT)Oil • AtpresentonlythecityofDelhihasmadethismandatory.Othercitiesneedto followtheexampletoachievelesseremissions. PhasingOutOldVehicles • Replacingthesewithnewonesmeetinglatestemissionstandardsor • Replacingbythoserunningonalternatefuels Upgradingoldvehicles • Retrofitwithcatalyticconverters(effectiveonlyonpostͲ1996vehicles) 4.4 CurrentFuelUsageandEmissions The following tables give the total fuel being consumed in various cities in India. The citiesarecategorizedaccordingtotheirpopulation. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 29 Table9CategoryWiseFuelConsumption/Day(InKiloLitres) City Population Category (inlakhs) Car 2W 3W Bus Total 1 <5 36 8 5 6 55 2 5Ͳ10 603 414 362 280 1,659 3 10Ͳ20 1,003 1,058 602 376 3,039 4 20Ͳ40 436 393 393 140 1,362 5 40Ͳ80 921 901 553 833 3,208 6 >80 4,782 1,605 2,869 7,442 16,697 Source:MoUDreport,2008 Table10CategoryWiseEmissions/Day(inTons) City Population Category (inlakhs) Car 2W 3W Bus Total 1 <5 6 3 0 0 10 2 5Ͳ10 90 133 24 21 268 3 10Ͳ20 158 342 125 27 652 4 20Ͳ40 64 127 37 9 238 5 40Ͳ80 143 300 143 60 647 6 >80 556 365 451 375 1747 (MoUDreport,2008) CarsandtwoͲwheelersconsumethemajorityofthefuelforallcitiesinCategory1to5 andaccountforapproximately65to90%ofthetotalemissionsproducedbyallmodesof transport.InCategory6cities,whilecarsandtwoͲwheelersaccountforlessthan50%of the total fuel consumption by all modes, the total emission produced by these two modesismorethan60%.Thisisduetohighlevelsofcongestionresultinginslowspeeds andthushigheremissions. InCategory5and6cities,intermediatepublictransportvehiclesaccountfor18to23% of the fuel consumption, respectively, while they contribute to approximately one quarterofthetotalemissionsbyallvehicles. It is expected that mandatory fuel economy standards and an official fuel economy labeling program will help in reducing these emissions (Centre for Science and Environment,2008). I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 30 4.5 Alternativefueltechnologiesavailable Adopting strong emission standards and enforcing them is one way of controlling air quality. Another way is to explore the possibility of alternative fuels and technologies. Thissectiondiscussesthevariousoptionsavailableintermsoffueltechnologies. TwoͲwheelersarenotattractivecandidatesforfuelchanges.However,thethreeͲ wheelerscanbesuccessfullyconvertedtoCNG(India)andLPG(IndiaandThailand).The followingarethefeaturesoftheseconversions: CNGAutoͲRickshaw: x UsesafourͲstroke,aircooled,sparkͲignitedengine x HasaCNGcylinder(22Ͳliterwatercapacity)abletohold~3.5kgofCNGat200bar pressure x Deliversafuelefficiencyof~45kmperkgofCNG x Complieswithallnotifiedsafetystandards x IsprovidedwithathreeͲliter“limpͲhome”petroltank x PricedatUS$2,000,about25%higherthanthecorrespondingpetrolversion(12,5% higherwithDelhiincentives) LPGautoͲrickshaw: Opinion is divided on whether LPG is a truly environment friendly alternative to advancedenginetechnologyandcleanfuels.Thisisbecausethetotalhydrocarbon(THC) emission of an LPG vehicle is higher (~15 to 30%) than that of corresponding petrol vehicleandalsothecarbonmonoxide,nitrogendioxideandnitricoxideemissionlevels are comparable to those of corresponding petrol versions. Users also may not be attractedtoLPGifthefueleconomybenefitistoosmall.Theotherdangerofpromoting LPG in India is that LPG for kitchen use attracts a subsidy (price ~Rs. 24/kgͲUS$ 0.60, subsidy~Rs.17/kgͲUS$0.42/kg).SincetheautoLPGpricewouldbebasedonmarket forces,itspriceislikelytobehigherandvariable. Theotheralternativesavailableintermsofthefueltechnologyare ElectricthreeͲwheelerautoͲrickshawprogram ElectrictwoͲwheelerscooterprogram However, largeͲscale commercial production and usage is yet to be achieved in this segmentandhencenoconclusionscanbedrawn. (IYER,2001;Georgeetal.,2002) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 31 4.6 TrafficFlowsandCongestionDataͲTrafficFlows VehiculartrafficflowsandtheirmodalsplitsobservedintheCBDareasofsomeselected cities are presented in this section. The ranges given here are collected from traffic volume count surveys done in these cities as a part of various comprehensive mobility plans,BRTfeasibilityplansandotherstudies.Sinceavarietyofvehicletypesmakeupthe totaltraffic,themodalsplitisalsopresentedtogetanideaofwhichvehiclesareactually contributing to the flows mentioned. Since this study is specific to twoͲandͲthreeͲ wheelers, only their modal splits and that of cars, the other major personalized mode, arepresentedseparately.Allothervehiclesareputtogetherintheotherscolumn. Table11TrafficFlowsandVehicularModalSplitsofSelectedCities City Population CBDͲMidblock (inmillions) Flow(pcu/day) 2W 3W Car Others* Total Delhi >10 50,000Ͳ60,000 6 8 18 86 100 Hyderabad 5Ͳ10 50,000Ͳ60,000 24 9 12 67 100 Pune 2Ͳ5 40,000Ͳ50,000 45 9 15 46 100 Jabalpur 1Ͳ2 30,000Ͳ40,000 37 2 2 59 100 Rajkot 1Ͳ2 30,000Ͳ40,000 35 1 16 64 100 Patna 1Ͳ2 30,000Ͳ40,000 20 10 12 70 100 Vijayawada 1Ͳ2 30,000Ͳ40,000 29 25 7 46 100 *Othersincludepublictransport,nonͲmotorizedtransport,andothermodeslike tractors,goodsvehicles,etc. Sources:TRIPPReport,2008 As a city’s population increases, the traffic in the CBD also swells because a large populationmeansalargercityandmorebusinessactivity,leadingtomoretrips.Also,for thefourcitiesinthesamepopulationrangeofonetotwomillion,theflowsarealsoin thesamerange,i.e.30,000to40,000PCU/day.Thissuggeststhatthetrafficpatternin cities with similar populations is comparable. Also, apart from Rajkot, with a threeͲ wheeler use of 1%, and Vijayawada, having a high threeͲwheeler usage of 25%, all the other cities have a similar threeͲwheeler modal share between 8Ͳ10%, which is also observedinthemodalsharesection10.1. TwoͲWheelerModalShareTrends InthecaseoftwoͲwheelers,eventhoughthereisnoexacttrend,thegeneralinclination isthattwoͲwheelermodalsharesgrowwithcitysizebutafteracertainpointdecreaseas I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 32 citysizeincreases.Thiscanbeattributedtoshorttriplengths(DiscussedinSection10.2) in smaller cities that grow as the cityͲsize increases, resulting in longer trips that encourage people to shift to motorized transport. Since twoͲwheelers are more affordable to middle income Indians (which constitute a high proportion of the population)peopleshiftfromNMTtotwoͲwheelers.Asthecitysizeand,hence,thetrip lengths increase more people prefer the comfort cars provide in the tropical Indian conditionsandhigherspeedsthatleadtolessertraveltimes.Section10.3presentssome otheraspectsregardingthetwoͲwheelermodalshares. 4.7 TrafficFlowsandCongestionDataͲCongestionData The volume/capacity (V/C) ratio measures congestion in various cities. For 2007, it is calculatedbytakingpeakͲhourvolumecounts(fourhoursinthemorningpeakandfour hours in the evening peak) at screen line (imaginary lines cutting across the major arterialsconnectingtheCBD)pointsofvariouscities. The following table gives the average V/C ratios in the arterials of cities categorizedaccordingtotheirpopulation.ThefutureV/Cratiosofthesecitieshavealso been estimated for a doͲnothing scenario, i.e. assuming that the vehicles grow at the samerateandtheroadinfrastructureremainsthesame. Table12ExpectedAveragePeakHourVolumeͲCapacityRatioforCitiesbyCategoryUnderDoͲ NothingScenario City Population Category (inmillions) 2007 2011 2021 2031 CategoryͲ1 <0.5 0.24 0.33 0.69 1.48 CategoryͲ2 0.5Ͳ1 0.73 0.78 1.2 1.64 CategoryͲ3 1Ͳ2 0.81 1.24 1.8 1.97 CategoryͲ4 2Ͳ4 0.97 1.05 1.16 1.32 CategoryͲ5 4Ͳ8 1.12 1.51 2.01 2.54 CategoryͲ6 >8 1.21 1.79 2.4 2.9 Source:MoUDreport,2008 It can be observed that in some cities the V/C ratios are greater than 1, which means vehiclesexceedtheroadcapacity.Thismaybeduetotworeasons. i) Roadsoperatingatlevelofservice(LOS)F:IRC106definesthisasthestateof forced or breakdown flow. This state occurs when the amount of traffic approaching a point exceeds the amount that can pass through it. Queues, I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 33 which operate in extremely unstable, stopͲandͲgo waves, form in such locations. Vehicles may progress at a reasonable speed for several hundred meters and may then be required to stop in a cyclic fashion. Due to high volumes,breakͲdownsoccurandlongqueuesanddelaysresult.Theaverage travelspeedsarebetween25and33%offreeflowspeed. ii) Useofincorrectcapacityvalues:Thecapacitiesofvariousroadsarespecified in terms of pcus/hr/lane. However, the PCU values adopted are static throughoutthenetworkandthereforemightnotberepresentingthearterial trafficcompletely.IfthePCUvaluesareincorrect,thecapacityvalueswillbe wronglyestimatedandthisleadstoincorrectV/Cvaluesincreasingmorethan 1inlargecitiesandV/C’sinsmallcitiesintherangeof1.24.Thistranslates intoacalculationthat76%percentofroadspaceisunused 4.8 MeasuringTrafficFlows Appropriatemethodologiesmustbeadoptedbeforeaccuratemeasuresoftrafficvolume can be obtained when planning, designing and operating a road system. Expressing trafficvolumeasthenumberofvehiclespassingagivensectionofroadperunitoftime is inappropriate when several types of vehicles with widely varying static and dynamic characteristics are present in the traffic stream. This problem can be addressed by convertingthedifferenttypesofvehiclesintoequivalentpassengercarsandexpressing thevolumeaspassengercarunit(PCU)perhour. PCUvalues: The PCU has been defined by the United Kingdom Transport and Road Research Laboratoryasfollows: Onanyparticularsectionofroadunderparticulartrafficconditions,iftheaddition ofonevehicleofaparticulartypeperhourwillreducetheaveragespeedofthe remainingvehiclesbythesameamountastheadditionof,sayxcarsofaverage sizeperhour, …thenonevehicleofthistypeisequivalenttoxPCU.(Arasanetal., 2008) TheIndianRoadCongress(IRC)setstheparametersrelatedtoroadsandpublishesthem ascodesofpracticeintwoofitscodebooksͲͲIRCͲSP41andIRC106.IRCSP41givesthe PCU values of atͲgrade intersections and IRC 106 gives the PCU values at midͲblock sections.Inbothcases,therecommendedPCUvaluesaretentative.Thefollowingtables givethevaluesinthesecodes. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 34 Table13PCUValuesatIntersections(IRCSP41:1994) VehicleType PCUvalue TwoͲwheelers 0.5 ThreeͲwheelers 1 Table14PCUValuesforMidͲBlocks(IRC106:1990) %Modeshare Lessthan5% 10%andabove TwoͲwheelers 0.5 0.75 ThreeͲwheelers 1.2 2.0 Thevaluesforpercentagetrafficcompositionbetween5%and10%willbeinterpolatedtheabovevalues. Also, these code books state that the PCU value varies as a function of the physical dimensionsandoperationalspeedsofthatparticularvehicleclasses.Speeddifferentials inurbanareasaregenerallylow andhence PCUvaluesarepredominantlyfunctionsof the physical dimensions of vehicles. However, empirical evidenceshows that there are other factors influencing the PCU value of a vehicle. Research done in India on PCU valuesandextractsfromthepaperspublishedinpeerreviewedjournalsarediscussedin thefollowingsection. FactorsInfluencingPCUValue i. EffectofRoadWidth Sikdar et al.(2000) found that road width influences the PCU values. If traffic volume and its composition remain unaltered, an increase in road width will provide more freedom for vehicles to choose their speed. By the same logic, the PCU for individualvehicleswillincreasewithroadwidth. Also,PCUforavehicledecreaseswithanincreaseinitsproportioninthetraffic stream.Foragivenroadwidth,increaseinvolumewillcausemoredensity.Duetothis, vehicles will move at reduced but uniform speed resulting in lower speed differences betweenacarandavehicletype.ItwillresultinasmallerPCUvalueforthevehicletype. ii. EffectofTrafficVolume Arasanetal.(2008)foundthatthePCUvalueofavehicletypevariessignificantly with variation in traffic volume. Their paper proposes that the PCU value of any mode increases with a rise in the total traffic volume and after a certain level, reduces with furtherincreaseinvolume. Hence,itisappropriatetotreatthePCU value ofavehicle typeasadynamicquantityinsteadofconsideringitasafixedone. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 35 The authors also found that PCU values can be accurately estimated through comprehensive study of the interaction between vehicles in traffic. Study of vehicular interactionunderheterogeneoustrafficconditionsinvolvesmodellingthetrafficflowat the microͲlevel, over a wide range of roadway and traffic conditions, as well as the collection of extensive traffic data in the field. A study was carried out in the city of Chennaiandtheresultsobtainedareexplainedbelow. Table15ModalShareofTraffic(Chennai,2006) Mode %Volume BusesandTrucks 3 Bicycles 10 MotorizedTwoͲwheelers 41 MotorizedThreeͲwheelers 16 Cars 28 LightCommercialvehicles 3 Source:Arasanetal.,RoadandTransportResearch,March2008. Table16PCUValuesObservedatVariousVolumeLevels Volume PCUValue (veh/hr) M3W M2W 500 1.1 0.29 1000 1.4 0.43 1500 2.07 0.55 2000 1.55 0.53 2500 1.07 0.52 3000 0.79 0.42 3500 0.7 0.38 4000 0.58 0.36 Source:Arasanetal.,RoadandTransportResearch,March2008. ThestudyshowsthatthePCUvaluesincreasewithanincreaseintrafficvolume and,afteracertainlevelisreached,reduceswiththeincreaseinvolume.Atlowvolume, spacing (both longitudinal and lateral) between vehicles is greater; cars (the reference vehicles) are able to maneuver through the gaps easily facilitating fast movement. An increaseintrafficvolumeatthisstagesignificantlyreducesspacingresultinginasteep reduction in speed. This trend continues up to a certain volume at which the speed of I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 36 thetrafficasawholedropsand,consequently,thespeeddifferencebetweencarsand other vehicle types narrows. At this stage, a further increase in volume results in a relativelylowerrateofchange(decreases)inthespeedofcarsandinarelativelylesser impact, due to the introduction of the subject vehicle. This results in the decreasing trendofthePCUvalueofthesubjectvehicleathighervolumelevels. iii. EffectofTrafficDensity,ModalSplitandLaneWidth In a separate study carried out in Delhi by Tiwari et al. (2008), traffic density, modalsplitandlanewidthwerefoundouttobeaffectingthePCUvalueandPCUvalues forIndianhighwaysbasedonempiricaldataaredeveloped.Trafficdataiscollectedand analyzed for various locations, traffic densities and lane widths and PCU values for modesarederived.ThePCU valuesfortwoͲwheelersandthreeͲwheelersdeveloped in this study, along with the average percentage composition of these modes, are presentedinthefollowingtable: Table17PCUValuesDevelopedforTwoͲWheelersandThreeͲWheelersinVariousRoad Conditions %2W 2ͲW Composition PCU Singlelane 43 0ͼ25 6 1ͼ34 Intermediatelane 23 0ͼ51 7 1ͼ31 18 0ͼ91 2 9ͼ16 Twolaneswith1ͼ5mshoulders 10 2ͼ81 15 2ͼ15 Twolaneswith2ͼ5mshoulders 24 2ͼ29 3 18ͼ66 FourͲlanesdivided 20 1ͼ99 4 11ͼ44 RoadType Twolaneswithoutpaved shoulders %3W 3ͲW Composition PCU Source:Tiwarietal.,2008. Thestudy’sauthorsfoundthatPCUvaluesofmotorizedthreeͲwheelershaveveryhigh valueswhenthemodalshareofthreeͲwheelersbecomeslessthan5%.Thisshowsthat vehicleshavingmuchloweraveragespeedsthantheothervehiclesinthetrafficstream, affectthecapacityoftheroadevenatlowdensities.Also,observersfoundthatthe85th percentileroadwidthoccupiedbyeachmodevariesbasedonthewidthoftheroadand, hence,thePCUvalueisdifferentfordifferentroadwidths,i.e.lesserroadwidthsforce vehiclestoformtighter85thpercentilewidthsandhenceoccupylessspaceandvehicles I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 37 occupymoreareaonwiderhighwaysasisevidentfromthehigherPCUvalueonwider highwaysascomparedtosinglelanehighways. Theabovevaluesarederivedfromthedataatruralandsuburbanhighways,where freeflowhighspeedtrafficexists.Thereforeinatypicalurbanscenario,wherethetraffic is of the forcedͲflow, lowͲspeed type, these values may not be applicable directly and somecorrectionsaretobemadetogetthecorrectvalues. iv. EffectofAreaOccupancy Mallikarjuna et al. (2006) studied traffic behavior as a threeͲdimensional phenomenon, including twoͲdimensional for the roadway (longitudinal and transverse) andonedimensionforthetimeandfoundthattheareaoccupancyofavehiclehasan effect on the PCU value. Area occupancy expresses how long a particular size of the vehicle is moving on a section of the road. It is measured over time and over space (length and width of the road). In this study the entire road width, irrespective of the number of lanes is considered as well as different sizes of vehicles. The following equationhasbeenusedtocalculatetheareaoccupancyofavehicle. Where, ʌAisareaoccupancymeasuredoverspaceandtimeacrosstheentireroadwidth Listhelengthoftheroadsectionunderconsideration xi denotes the distance between the vehicle and any of the two reference lines, measuredalongtheroadlength L–xidenotestheactualdistancetraveledbytheithvehicleovertheobservedroad section wiisthewidthoftheithvehicle W is the width of the road and it is assumed to be constant for the entire road section Tisthetimeperiodofobservation Cellular Automata models have been developed for modeling traffic because they are more representative of mixed traffic than regular car following and lane changing models. In this model the gap acceptance parameters and speed variation parameters aretakeninsuchawaythattheyrepresentmixedtrafficconditions.Fromthesemodels, the PCU values for trucks, buses and twoͲwheelers at different area occupancy values I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 38 have been developed. The PCU values for twoͲwheelers at various modal shares are presentedinthefollowingtable. Table18PCUValuesofTwoͲWheelersatDifferentAreaOccupancyValues %No.of Area 2W Occupancy 10 20 40 60 80 100 PCE(max) PCE(Min) 0.036 0.1 0.1 0.038 0.44 0.1 0.05 1 0.52 0.029 0.1 0.1 0.038 0.76 0.1 0.05 0.79 0.53 0.028 0.1 0.1 0.038 0.46 0.1 0.05 0.46 0.34 0.025 0.1 0.1 0.038 0.48 0.12 0.05 0.88 0.12 0.021 0.22 0.22 0.038 0.6 0.25 0.05 0.87 0.25 0.021 0.26 0.26 0.038 0.45 0.36 0.05 0.6 0.36 Source:Mallikarjunaetal. Observersreportthat,dependinguponthetrafficconditions,thetwoͲwheelerPCUvalue rangesfrom0.36toeven1insomeinstancesandhenceastandardvalue,asadoptedin the current code books, will not be correct. Also, the PCU value decreases with the increaseinproportionoftwoͲwheelersinthetrafficstream. FromalltheabovestudiesitcanbeconcludedthatthecurrentlyadoptedPCUvalues do not represent the actual situation in the field and, hence, a more robust way of estimatingthePCUvaluesneedtobedeveloped.However,thefactorslistedabovemay notbeallinclusiveandtheremaybeotherfactorsaffectingthePCUvalue.Thisrequires extensivestudiestofindtheexactfactorsinfluencingthePCUvaluesandbasedonthe I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 39 findingsofthestudy,PCUvaluesofvariousvehiclesundervariouscircumstancesneedto bedeveloped. 4.9 RoadSpaceRequirementsandTravelTimeforDifferent ModesofTrafficinDifferentTypesofLocations Theroadspacerequirementsarecalculatedintermsofthepassengercarunits(PCU)of vehicles. IRC 106 states the Guidelines for the Capacity of Urban Roads in Plain Areas. ThisdiscussesthebasisofthePCUvaluesadoptedtofindthecapacitiesofurbanroads. Itstatesthat“thePCUvalueisafunctionofphysicaldimensionsandoperationalspeeds of respective vehicle classes. In urban situations the speed differential among various classesisgenerallylow,andassuchthePCUfactorsarepredominantlyafunctionofthe physicaldimensionsofthevariousvehicles.Nonetheless,therelativePCUofaparticular vehicletypewillbeaffectedtoacertainextentbyincreaseinitsproportioninthetotal traffic”anditrecommendsthefollowingPCUvaluesbeadopted. Table19PCUValuesFromIRC106:1990 Percentagecompositionof Vehicletype TwoͲwheelers (Motorcycleorscooteretc.) ThreeͲwheeler (AutoͲrickshaw) PassengerCar LightCommercialvehicle TruckorBus Cycle CycleRickshaw HandCart vehicletypeintrafficstream Lessthan5% 10%andabove 0.5 0.75 1.2 2.0 1.0 1.0 1.4 2 2.2 3.7 0.4 0.5 1.5 2 2 3 Thevaluesforpercentagetrafficcompositionbetween5%and10%willbeinterpolatedtheabovevalues. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 40 However this may not be true all the time. The assumption that speed differentials in urbanareasareminimalisquestionable.Also,variousresearchershaveshownthatthe PCU value depends on many other factors apart from the physical dimensions and proportionofvariousvehicleclasses.Thereforetheroadspacerequirementsvaryfrom onelocationtoanother.Extensiveempiricaldataneedstobecollectedandmodeledto knowtheroadspacerequirements. CapacitiesofRoadswithStandardLaneWidths IRC 106 guidelines, Table 33, states the capacities of various types of roads specified here.Allthecapacitiesgivenareintermsofthenumberoflanesinaparticularroad.The standard lane widths followed are 3.75m for single lane roads and 3.5m per lane for roadswithtwoormorelanes. Table20CapacitiesofRoadsofVariousWidths RoadType Capacity (BothdirectionsCombined) (PCU/hr/direction) 1ͲLane 350 2ͲLanesUndivided 750 2ͲLanesDivided 750 3Ͳlanes 1000 4ͲLanesUndivided 1500 4ͲLanesDivided 1800 6ͲLanesUndivided 2400 6ͲLanesDivided 2700 (Source:IRC106) However,theactualcapacitiesinthefieldcanbedifferent,mainlyfortworeasons.First, atmanylocationsinIndia,thelanewidthspecificationsarenotfollowedandmanyroads withwidthsnotconformingtothe3.5mperlanestandardareconstructed.Second,the capacitieslistedaboveassumethatvehiclesobservethelanedisciplines.Duetomixed/ nonͲhomogeneoustrafficconditions,asexplainedinthefollowingfigures,lanediscipline israrelyfollowedinIndiaandsotheactualcapacitiescanbedifferenttothose mentionedinTable33. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 41 HomogeneousandNonͲHomogeneousTraffic Homogeneoustraffichasstrictlanedisciplineandtraffictypeswhosephysical dimensionsdonotvarymuch.ThisisillustratedinFigure7. Figure7HomogeneousTraffic Source:Tiwarietal.,2007 NonͲhomogeneoustrafficisusuallyrepresentedbypassengercarsandheavyvehicles.as wellasmotorizedtwoͲwheelers,motorizedthreeͲwheelers,minitrucks,minibuses, bicycles,pedestrians,animals,animalͲdrawncarts,andvendorpushͲpullcarts.There physicaldimensions,operational,andaccelerationanddecelerationcharacteristicsvary greatlybecausenonͲmotorizedtrafficentitiessharetheroadwithmotorizedvehicles. Further,inthistrafficsoupmotorizedtwoͲwheelersthattypicallyhave100ccengines operatingsidebysidewithpassengercarsthattypicallyhave1,200ccengines.Afacility hasnonͲhomogeneoustrafficwhenitspeakhourvolumehaslessthan85%passenger carsandhaslessthan90%passengercarsandheavyvehicles(Tiwarietal.2008).Figure 8showsatypicalnonhomogeneoustrafficconditionobservedinDelhi,India. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 42 Figure8NonͲHomogeneousTraffic(Delhi,India) Source:Tiwarietal.,2007. ActualCapacitiesObservedonIndianRoadswithNonͲStandardLaneWidths TocomparetheactualflowandthecapacityvaluesgiveninIRC106,observationsfroma studydoneontwointersectionsonthearterialsofDelhiareselectedandthepeakhour volumecountsonthefourapproachesofeachofthesetwointersections.Thefollowing tablegivestheroadwidths,actualflowandthecapacitiesofeachoftheroadsaccording toIRC106. Table21CapacityVs.FlowObservedinDelhi Nameofthe Approach Approachroad No.ofLanes Capacity Totalincoming Intersection Nos. width(m) marked (pcu/hr) flow(pcu/hr) 1 7 2 1800 1430 2 10 2 1800 2593 IIT 3 14 3 2700 4200 Intersection 4 14.5 3 2700 4018 1 9.5 2 1800 1561 2 11 2 1800 2121 NehruPlace 3 11.5 3 2700 4049 Intersection 4 11 3 2700 2598 Source:TRIPP,IITDelhi. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 43 Outoftheeightapproaches,onlyonehaslanewidthsmarkedaccordingtotheIRC guidelineof3.5mperlane.Atalltheotherlocationsthemarkedlanewidthsdonot conformtostandardspecifications.Also,convertingthetrafficintoPCUsandcomparing theactualtrafficwiththeroadcapacities,accordingtoIRC106,showsthatinsevenof theeightapproaches,thevolumeoftrafficisexceedingcapacity.Thisclearly demonstratesthefactthewithinthe2/3lanesprovidedmorethan2/3vehiclesare passingbecausevehiclesarefailingtofollowinglanedisciplineswhichleadsto,better useofavailableroadspace. Theproblemofunmarkedstandardlanewidthsisnotaseriousonebecause peoplearenotgoinginthemarkedlanesanyway.However,incorrectcapacity standards,ifany,needtobecorrectedbecausepeoplemayoverestimatetherequired roadspacebecauseofthelessercapacitiesgiveninthecodebooks. Suggestionsforcorrectpredictionofcapacities: Thecontinuityequationoftrafficflowforhomogeneoustrafficis k=q/us whereq=trafficflowacrossalaneorlanes(vehicles/h) us=spacemeanspeed(km/h) k=trafficdensityinalaneorlanes(vehicles/km) The above equation assumes constant spacing and constant speed, i.e., under uncongestedconditionswithmoderatetoslightlyhightrafficvolume. Since maximum flow in any section gives the capacity of that particular section, if the aboveequationisvalidatedfornonͲhomogeneousconditions,byvaryingkandusbased ontheactualroadconditions,capacityofaparticularroadcanbeascertained.However, the equation is for homogeneous traffic and the capacity is to be found for nonͲ homogeneoustraffic.Thisneedstobedonebyfindingcommonalitiesexistingbetween theories of homogeneous and nonͲhomogeneous traffic and deriving the required parametersfromthosecommonalities. Tiwarietal.(2008)presentonesuchstudydoneonthevalidationofcontinuityequation fornonͲhomogeneoustraffic.Inthisstudy,thevalidationisdonetakingtrafficdensity(k) as the parameter. A modified continuity equation is used in this study to reflect nonͲ homogeneous traffic in such a way that the parameters are adjusted but the traffic characteristicsmaintainthebasicrelationshipasintheoriginalequation. Herethetotaldensityistakenintermsofsumofindividualdensities,whereindividual densitiesarevehiclesofaparticulartype(mode)perunitarea.Flowistakenintermsof I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 44 number of vehicles of the mode considered for density and speed as the space mean speedofthesamemodeofvehicles,whichcrossthetotallengthoftheareaconsidered indensity. Theequationsusedhereare: ForIndividualModeDensities: Kj=(qj/W)/us,j Where, j=trafficentitytype,e.g.,2=heavyvehicle,3=motorizedthreeͲwheeler kj=averagenumberoftrafficentitiesoftypejperunitareaofhighway,e.g.,motorized twoͲwheelers/(kmm) W=crossͲsectionalwidthformeasuringflow,e.g.,m Flowqj=NumberoftrafficentitiesoftypejcrossingthecrossͲsectionallineofwidthW duringatimeinterval,e.g.,nonmotorizedtwoͲwheelers/h;and Speed us,j=space mean speed of traffic entities of type j that completely traverse the lengthofthehighwayarea(km/h)(thespacemeanspeedofnonͲhomogeneoustrafficis theweightedharmonicspeedofeachtraffictype’sspacemeanspeed) AnassumptionhereisthatWisconstantthroughoutthehighwaysegmentforalltraffic entitytypes. TotalDensityofallmodes,i.e.sumofdensitiesofindividualmodes,sinceallthemodes usethesameavailableroadspace. N knt ¦k j j 1 Where, knt=averagenumberofnonͲhomogeneoustrafficentitiesperunitareaofhighway,e.g., entities/(kmm) andN=totalnumberofentitytypesinthenonhomogeneoustrafficstream. TheaveragedensityfromactualdensitiesobservedonamidͲblocksectioninthefieldis comparedtothedensityderivedfromflowsandspacemeanspeeds.Itwasfoundthat thesetwomatcheachotherfortheaboveequations.Therefore,byusingtheabove modifiedequations,continuityequationisalsovalidundernonͲhomogeneous conditions. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 45 Theactualconcernhereistofindoutthecapacity,whichisthemaximumtotalflowina section.Theflowequationtobeusedis: qnt W N qj ¦W j 1 Where,qnt=Totalnonhomogeneoustrafficflow. qnt/W=flowperunitwidth Themaximumtotalflowisthesumofmaximumflowsofeachmodederivedby maximizingtheflowequation.Inthiswaymaximumflowperunitwidthisderivedwhich givesthecapacityperunitwidth. ThisgivesonemethodoffindingthecapacitiesoflaneswithnonͲstandardlanewidthsin nonͲhomogeneoustrafficconditions. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 46 5 TrafficDemandModelingMethodsSpecifictoTwoandͲ threeͲwheelersandHeterogeneousTraffic 5.1 CurrentModelingPracticesFollowedinIndia The modeling method currently adopted in India is largely the fourͲstep process, exceptinsomeresearchinstitutionswherediscretechoicemodelingandactivitybased modelingareadopted.Thegeneralpracticetobefollowedcurrentlyistomodelthepeak hourtrafficusingsoftwarelikeTransCAD,CUBEVoyager,TRIPS,etc. Theprocedureforthisisasfollows: i. TripGeneration:Derivingthetripgenerationequations(tripproductionandtrip attraction) from household interviews (HHI) and preparing the production and attractiontableforallthezonesofthecityfromthoseequations. ii. TripDistribution:Distributingthetripsamongzonesusingthegravitymethodfor tripdistributionandcalibratingitbasedonobservedtriplengthsinthecity. iii. Mode Choice: Mode choice modeling by techniques like revealed/stated preference surveys is not carried out in detail in most of the referred studies. (Comprehensive Mobility Plans of Jabalpur, Rajkot, BRT Feasibility studies of Vishakhapatnam, Vijayawada). The mode share derived from the HHI data is appliedforthewholecity.(Insomecases,itistakenzonebyzoneandinothers attheaggregatelevelforthewholecity). iv. Trip Assignment: Trip assignment techniques like user equilibrium generally are used to assign the trips on the network using the shortest path algorithm. The shortest path is decided either on distance or time as criterion (as specified by theuser).Thesoftwareinitiallyassignstripstoaparticularpathandbasedonthe capacity of the roads, delays are calculated and alternative paths are explored iterativelybeforeconvergingontoasinglepathforeachtrip. However,thissoftwarehassomeinherentfeatureswhichdonotexactlyreflectthe mixed traffic conditions. Thereby implying that, the twoͲwheelers and threeͲ wheelersarenotproperlyaccountedforinthemodelingprocess.Theseaspectshave beenlistedbelow.NospecificmethodologyfortwoandthreeͲwheelersisadopted. PCUvalueisassumedtobetakingcareofthem(IRCͲ106). I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 47 5.2 ErrorsinCurrentModeling,ApplicableforTwoandThreeͲ WheelerTraffic 1. PCU Value Constant for the Entire Network: For traffic assignment, originͲ destination(OͲD)matricesofvariousmodesaccordingtotheirmodalsharesare prepared and while assigning the matrix to the network, the PCU values of the modesarespecified.Therefore,thePCUvaluesgivenherearestaticthroughout thenetwork.Asspecifiedinsection5.2.2,thePCUvaluesneedtobedynamicfor themtoberepresentativeoftheactualconditions.Thisimpliesthatthecorrect PCUvaluescannotbeincorporatedinthepresentmodelingprocedures. ProbableSolution:Ifmodelingsoftwareacceptsaprogramwhichtakesdynamic PCU values as a function of the different variables on which it depends, this problemcanbeovercome.However,thecurrentmodelingpackageslikeEmme3, TransCAD(whichareamongthemostusedsoftwaresinIndia)donothavesuch features and hence more research needs to be done before a solution can be found. 2. ModalShareConstantfortheEntireNetwork:Themodalsharespecifiedinthe OͲDmatrixisgenerallycalculatedattheaggregatelevelfortheentirenetwork. However, this might not be true under actual conditions where there is an elevated chance that the modal split is different in different locations. In some areas, the proportion of cars may be more and in some other areas, the proportionoftwoͲwheelersandthreeͲwheelersmaybemore. Probable Solution: To counter this, from the data collected through household interviews,separatemodesharesforallthezonesshouldbecalculatedandmode choice modeling carried out. This must be used while forming the OͲD matrix. However,thereisnoreportofsuchworkdoneinIndiaasperthedataavailable forthecurrentstudy. 3. LinkSpeedsbutnotVehicleSpeedsareConsidered:Thespeedofthevehiclesis taken in terms of link speeds. This assumes that the speed differential among variousvehiclesisnegligibleandhencethelinkspeedwillbethespeedofallthe vehicles.Thismaybetrueforhomogeneoustrafficconditionswherethenumber ofmodesinthetrafficisfew.Butinmixedtrafficconditions,withthepresenceof twoͲwheelers, threeͲwheelers and cars which have different engine capacities andalsowiththepresenceofnonͲmotorizedtransportontheroad,thismaynot I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 48 betrueallthetimeand,hence,givinglinkspeedsinsteadofvehiclespeedsleads toerrorsinthemodelingresults. ProbableSolutions: i. Ifsegregatedlanesfordifferentvehiclesareprovided(eg:BRTsystems),the errorisminimizedtosomeextentbecauseheavyvehiclesusethebuslanes, NMT usesthebicycle lanes andsoon.In thiscase,thespeedsofcars,twoͲ wheelers,threeͲwheelersandothermotorizedmodes,ifanyaresharingthe roadmightnotbehighlydifferenttoeachother. ii. Even though macroscopic modeling software does not have the option of modeͲwise speeds, microscopic simulation software like VISSIM, AIMSUN havethisoption.Thereforemacroscopicmodelingcanbeusedfortheentire network to get a general idea of traffic loads at various points and at the critical locations; microscopic simulation can be carried out to get accurate results. 4. People DoNotUsetheShortestPathAvailable:Thealgorithmsusedinvarious modeling software assign the OͲD matrix to the network based on the assumption that people use the shortest path to reach their destinations. However, research shows that people do not always use the shortest path availableandtheyarelikelytousesomemajorcorridorsalongtheirrouteevenif this increases their trip lengths. This may be due to reasons such as lack of knowledgeoffamiliaritywithshorterrouteswhichmaypassthroughunpopular areas, superior Level of Service (LOS) on the major corridor, presence of gated communitieswhichdonotallowexternaltraffictopassthrough.Ideally,tosolve thisproblem,thelinksofthenetworkneedtobegivenpriority. Probable Solution: There are no conclusive method for nullifying this error and furtherresearchneedstobedoneouttodiscoverasolution. Even though the problems mentioned are faced in some other countries where solutionshavebeenfound,thosesolutionsneedtobeadaptedtoIndianconditions andincorporatedinthedesignstandardssothattheyareavailabletopeopledoing macroscopicmodelingforcities. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 49 6 Road/IntersectionDesignGuidelines ThedesignguidelinesforroadsinIndiaareformulatedbytheIndianRoadsCongress (IRC). The following four codes are found to be giving the road/intersection design guidelinesspecifictotwoͲandͲthreeͲwheelers. i. IRC3Ͳ1983givesthe”dimensionsandweightsofroaddesignvehicles” ii. IRC 86: 1983 gives the geometric design standards for midͲblocks or through sections iii. IRCSPͲ41:1994givesthe”designguidelinesforatͲgradeintersections” iv. IRC92Ͳ1985givesthe”guidelinesforthedesignofinterchangesinurbanareas” The salient features in these guidelines, which are applicable to twoͲandͲthreeͲ wheelersarediscussedbelow. i. IRC3Ͳ1983,givesthedimensionsandweightsofroaddesignvehicles’. Threevehiclestakenasastandardfordesignare: i) Singleunit(meaningonepassengercarunit) ii) SemiͲtrailer iii) TruckͲtrailercombination TwoͲandͲthreeͲwheelersarenotmentionedamongthedesignvehicles.ThePCUvalueis assumedtobetakingthemintoaccount.However,asexplainedinthePCUsectionthese valuescanbewronginsomecircumstancestherebyimplyingthattheguidelinesmight notbeaccurateinallthecases. ii. IRC 86: 1983 gives the geometric design standards for midͲblocks or through sections: Forthispurposealltheurbanroadshavebeendividedintofourcategories: 1. Arterial:Ageneraltermdenotingastreetprimarilyforthroughtraffic,usuallyon acontinuousroute. 2. SubͲarterial:Ageneraltermdenotingastreetprimarilyforthroughtraffic,usually onacontinuousroutebutofferingsomewhatlowerleveloftrafficmobilitythan thearterial. 3. Collectorstreet:Astreetforcollectinganddistributingthetrafficfromandtothe localstreetandprovidingaccesstothearterialstreets. 4. Localstreet:Astreetprimarilyforaccesstoresidence,businessorotherabutting property. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 50 Based on these road classifications, parameters like the design speed, right of way (ROW), sight distance, and horizontal and vertical alignment parameters are recommended.Also, thecrosssectionalelementsofroadsliketheroadwidths,design traffic volume, carriage width, footpath and bicycle track provisions are specified. The designtrafficvolumeismentionedintermsofPCUandthePCUvaluesfortwoͲwheelers andthreeͲwheelersareasmentionedbelow.AsexplainedinthePCUsection5.2.2,these valuesmightnotbecorrectunderallcircumstancesandhenceneedtoberevised. Table22PCUValuesFromIRC86:1983 ThreeͲwheeler(AutoͲrickshaw) 1.00 TwoͲwheeler(Motor/Scooter) 0.50 Thedesignspeedistheprimarycriterionforallthestandardsdevelopedandthedesigns will comprise all vehicle types, thereby implying that the twoͲwheelers and threeͲ wheelers are also taken into account. Also, whenever the length of wheel base of a vehicle isrequired,it isnormallytakenas6.1mor6.0mforcommercialvehicles.Since the lengths in case of twoͲandͲthreeͲwheelers are less than this, they are being accommodatedinthedesign. In all the cases, no separate design standards for twoͲandͲthreeͲwheelers’ specific environmentsaredeveloped.Atentativepassengercarunit(PCU)valueisdevelopedfor variousvehicles(inallthecasesandtheyusethesamePCUvalues)andthetrafficfrom allthemodesisconvertedtotheseunits.Therestofthedesignisdevelopedassuming that a certain number of cars use the road and a certain level of service (LOS) and dimensionsareavailable.SincethePCUvalueitselfcanbewrong(explainedinsection 5.2.2),thewholedesignprocessislikelytobeinaccurate. iii. IRCSPͲ41:1994takesthefollowingasdesignparameters: - Designspeed - Designtrafficvolume - Designvehicle - Designradiusofcurvesatintersection - Widthofturninglanesatintersection - Acceleration/decelerationlanes - Superelevationandcrossslope - Visibilityatintersections - ChannelizingIsland I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report - Curb - Trafficrotary P a g e | 51 Among all the parameters, the design vehicle,design speed and the traffic volume are the central parameters and, based on their values, the other parameters’ values are specified.Theseparametersarediscussedindetailinthissection. DesignVehicle ThecodespecifiesthattheintersectionsalongthearterialsandsubͲarterialsintheurban areas and those in theCentral Business District (CBD) need to be designed for a single unit truck (with allowance for turning vehicles encroaching on the other lanes in the CBD). A single unit truck has the dimensions of 2.58m width and 9m length. Since the twoͲwheelers and threeͲwheelers have lesser dimensions compared to a single unit truck,anintersectiondesignedforsuchavehicleisassumedtobeabletoaccomodate thetwoͲandͲthreeͲwheelers DesignSpeed Adesignspeedof80kmphforarterials,60kmphforsubͲarterials,50kmphforcollector streetsand30kmphforlocalstreetsarerecommended.SincethedesiredspeedsoftwoͲ wheelersandthreeͲwheelersarelessthan60kmpheveninarterials,thedesignspeed specifiedinthecodescatertothemalso. TrafficVolume AsexplainedintheTrafficFlowsandCongestionDataSection,thetrafficvolumeshould notbetalliedasthetotalnumberofvehiclespassingapoint,butshouldbecountedas totalPCUspassingthroughapoint.ThismakesthePCUvalues veryimportant andthe accuracyofthePCUvaluesdeterminestheaccuracyoftheintersectiondesign.ThePCU valuesrecommendedinthecodearegiveninthetablebelow. Table23PCUValues(IRCSP41:1994) ThreeͲwheeler(AutoͲrickshaw) 1.00 TwoͲwheeler(Motor/Scooter) 0.50 iv. IRC92Ͳ1985givestheGuidelinesfortheDesignofInterchangesinUrbanAreas In this book, various guidelines on when to construct an interchange and what factorstoconsiderͲͲterrain,trafficcomingin,importanceoftheintersection,etc.ͲͲare I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 52 discussed. Also, the types of interchanges for various situations and their geometric details are specified. However, all the vehicles are divided into two categories ͲͲ motorizedandnonͲmotorizedanddesignsaredevelopedforthem.But,inmixedtraffic conditionstwoͲwheelersandthreeͲwheelersformahighproportionofmotorizedtraffic and based on their vehicle capabilities, speeds, etc. the interchanges designed for cars and trucks can become nonͲnegotiable. For example, if the vertical curves are banked veryhigh,carswithenginecapacitiesof800ccandabovemaybeabletonegotiateit,but twoͲwheelerswitha100ccenginecanfinditdifficult. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 53 7 ConflictswithOtherVehicles,BicyclesandPedestrians A traffic conflict is defined as a situation in which two road users approach each other in such directions and with such speeds as to produce a collision unless one of them performs an emergency evasive maneuver. More rarely, a traffic conflict may involveasingleroaduseronacollisioncoursewithafixedobstacleorananimal.(The WayForward,2005) Thenormallanewidthsare3.5mperlaneandthemaximumwidthofanyvehicleis 2.4m.AlsotypicalurbantrafficisdistinguishedbymixedͲuse,inclusiveoftwoͲandͲthreeͲ wheelerswithwidthslessthanorequalto1.5m.Thisleadstomorevehiclesusingthe road than there are available lanes during periods of heavy traffic. Because of this phenomenon,vehiclestrytooutmaneuvereachother. AlargeshareofnonͲmotorizedvehicles(NMVs)andmotorizedtwoͲwheelers(MTW) make up the transport system of Indian cities. In such cities, 45% to 80% of the registered vehicles are MTWs. Cars account for 5% to 20% of the total vehicle fleet in mostLMClargecities.Theroadnetworkisusedbyatleastsevencategoriesofmotorized vehicles and NMVs. Public transport and paraͲtransit are the predominant modes of motorizedtravelinmegacitiesandcarry20%to65%ofthetotaltripsexcludingwalking trips.Othermodesmakeupfortherestofthetrafficandsetthestageforconflict. AstudydoneinDelhiobservedtheconflictsbetweenvariousvehiclesundermixed trafficconditionsandreportedtherelationshipbetweenfatalcrashesandconflictrates atmidͲblockin14locationsinDelhi.Thedata revealedthatthepresenceofonlyafew nonͲmotorizedvehiclesisenoughtocauseconflictswithmotorized.Whilethestudydid not provide a conclusive relationship between midͲblock conflicts and fatal crash sites, animportantconclusionisthattrafficͲplanningemphasisonconflictratesmaynotresult inreducingfatalitiesonurbanroadsalongmidͲblocksegments. From the total conflict data, the conflicts involving twoͲandͲthreeͲwheelers are separatedandarepresentedinthetablebelow. Table24ConflictsofTwoͲandͲThreeͲWheelerswithOtherVehiclesinDelhi Car Bus 2W 3W Bicycle Total 3W 24% 17% 17% 25% 17% 100% 2W 22% 27% 18% 13% 20% 100% Source:Tiwarietal,Accid.Anal.andPrev.,Vol.30,No.2,pp.207Ͳ215,1998 I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 54 TheresultsshowthatmostconflictsinvolvethreeͲwheelersengagedwithother threeͲwheelers,followedbythreeͲwheelersinconflictwithcars.TwoͲwheelersaremost often involved in skirmishes with buses followed by cars, bicycles and other twoͲ wheelers.ThiscanbeexplainedbythespeedsoftwoͲwheelers,busesandcarsthatcalls for segregation of this heavy traffic by methods like exclusive bus lanes. The phenomenon of vehicles colliding most with like vehicles is thought to be due the process of natural segregation. Even without segregated lanes for different modes, vehicles are aligning themselves into clusters of their own. For example, all NMTs operateintheleftmostlanes,busesintherightmostlanesandcarsandtwoͲandͲthreeͲ wheelersinthemiddleisacommonphenomenon. Figure9showstheconsolidatedresultsofadetailedstudydonein14locations on national highways around the country (Reference). This demonstrates that even on nationalhighwaystwoͲwheelersconstituteover20%ofthefatalitiesandallvulnerable roadusersputtogether,whichincludesthethreeͲwheelers,constitutemorethan65%. Figure 9 also indicates that trucks are involved in the vast majority of fatal crashes. In the absence of detailed multiͲdisciplinary crash investigation data, we can only surmise that this disproportionate involvement must have to do with a higher presenceoftrucksonnationalhighwaysandthegreatermassoftruckscomparedwith otherroadusers.Intheeventofacrash,theroaduserwithalowermassusuallysuffers moresevereinjuries. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 55 Figure9ProportionofRoadUsersKilledfromImpactingVehiclesonSampledNational Highways (Source:TheRoadAhead,DineshMohan) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 56 8 SafetyDataandPreventionMeasures 8.1 IndiainComparisonwithDevelopedCountries RoadtrafficcrashesarechieflycausedbyahighͲenergytransferbetweentwovehiclesor byahighͲspeedvehiclehittingalowspeedvehicleorapedestrian.Therefore,thetype of vehicles on the road is important in determining the crashes caused and the preventive measures needed. The following figure compares the type of vehicles registeredinIndiaascomparedtosomedevelopedcountries. Figure10ProportionofVehiclesRegisteredinIndia,Germany,JapanandUSA (Source:MohanD.,2004) Theabovedatashowsthatthecarpopulationasaproportionoftotalmotorvehiclesis muchlessinIndiathaninthehighlymotorizedcountries(HMCs)(13%vs.56to80%)and that the proportion of motorized twoͲwheelers (MTW) is much higher (70% vs. 5 to 18%).InFigure8,thefatalitiesinIndiaarecomparedtothesecountriestoseewhether thedifferenceinthenumberofvehiclesiscausinganychangeinthenumberoffatalities. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 57 Figure11ProportionofDifferentTypesofRoadUsersKilledinDelhi,Mumbai,National HighwaysinIndiaandinHighlyMotorisedCountries *ͲͲAveragefor14locations,MTW–motorisedtwoͲwheelers (Source:Worldreportonroadtrafficinjuryprevention,2004) This figure shows that pedestrians, bicyclists and MTW riders, who constitute the vulnerableroadusers(VRUs),constitute60to80percentofalltrafficfatalitiesinIndia. Thisflowslogicallyfromthefactthatthisclassofroadusersformsthemajorityofthose ontheroad.Inaddition,becausemetallicorenergyabsorbingmaterialsdonotprotect VRUs,theysustainrelativelyseriousinjuriesevenatlowvelocitycrashes. However,thefactthatthedifferencesinfleetcompositionsareaffectingthetrafficand crashpatternsenormouslycannotbedenied.Therefore,thepreventivemeasureswhich are applicable in the HMCs might not be of the same use in India and the situation in Indianeedstobelookedatseparatelytounderstandthepreventivemeasuresrequired here. 8.2 SituationinIndia Table18showsthenumberoftwoͲwheelersandthreeͲwheelersasaproportion ofall vehicles registered in Indian cities. Studies from different cities also show that bicycles constitute10%to35%ofalltripsinmostcitiesofIndia.Thisshowsthatthevulnerable roadusersconstitutethevastmajorityoftrafficontheroadsinIndiancities. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 58 Table25ShareofMotorisedTwoͲWheelersandThreeͲWheeledScooterRickshaws(14). (Source:MohanD.,2004) Table26showstheproportionofdifferentroaduserskilledinDelhiandMumbai.Inboth cities,thecaroccupantsconstitutelessthan5%ofallthefatalitiesandvulnerableroad users more than 80%. Similar data for all cities are not available, but considering that road user proportions are similar in most cities, we can safely assume that fatality patternswillalsobesimilar. Table26ProportionofRoadUsersKilledatDifferentLocationsinIndia Location %Fatalitiesofvariousmodes Truck Bus Car 3ͲW 2W Rickshaw Bicycle Pedestrian Total Mumbai 2 1 2 4 7 0 6 78 100 NewDelhi 2 5 3 3 21 3 10 53 100 Highways* 14 3 15 0 24 1 11 32 100 (*ͲAverageof14locations,tractorfatalitiesnotincluded) (Source:Worldreportonroadtrafficinjuryprevention,2004) 8.3 FatalityIndexforVariousCities A fatality index has been developed for various cities to compare the situation across differentcities.Theaveragenumberoffatalitiesperonemillionpeopleperyearistaken as the indicator. Table 27 gives the values for various cities in India. All the cities are segregatedintofivecategoriesbasedonpopulation.Thefatalitiesarecollectedandthe averageofallthecitiesistakentogetageneralpictureofthefatalitiesinvarioustypes ofcities. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 59 Table27AverageFatalitiesPerOneMillionPopulationPerYearinVariousCitiesinIndia CityCategory Population(inmillions) 2W 2002 3W CategoryͲ CategoryͲ CategoryͲ CategoryͲ CategoryͲ 1 2 3 4 5 <1 1Ͳ2 2Ͳ5 5Ͳ10 >10 260 110 140 80 80 70 20 40 20 10 Accident Total 10 10 10 10 0 data: 2W 270 120 140 90 80 2003 3W 110 20 50 20 10 0 10 10 10 0 Fatalities per Total 1,00,000 2W 270 110 160 90 80 population 2004 3W 90 30 50 30 20 (Time Total 10 0 0 10 0 Trends) 2W 310 320 50 30 80 2006 3W 90 80 30 10 20 20 20 0 0 0 Total Source:MinistryofurbanDevelopment(MoUD)report,2008 The data here shows a continuous increase in the number of fatalities in cities with a populationoflessthantwomillion.However,incitieswithapopulationgreaterthantwo million,thenumberoffatalitiesisreducedbetween2004to2006.Thiscanbeattributed to increasein trafficand higherV/C ratios, leading to reduction in average speeds and hence reduction in the number of fatalities. No data on time trends of modal split are availableandhencenocorrelationbetweenmodalsplitandmodeͲwisefatalitiescould beobtained. Itisalsoobservedthat,thetwoͲwheelerscontributetobetween17and51%of total fatalities while the threeͲwheelers contribute to roughly 3 to 8%. Hence, threeͲ wheelersarerelativelysaferandimmediateconcentrationonthepreventivemeasures shouldbeputontwoͲwheelers.Thesearediscussedinthefollowingsection. CausesofAccidents Empiricalresearchshowsthatthefollowingaresomeofthemajorcontributorstoward accidentsinIndia: x Motorized vehicles colliding with pedestrians and nonͲmotorized vehicles in urban areas I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report x P a g e | 60 Speed differentials between diverse vehicles operating on the roads under mixed trafficconditions x Nighttimedriving x WrongͲwaydriversondividedhighways x Unsafevehiclefrontdesigns (Source: Road Safety in India: challenges and opportunities, Dinesh Mohan, Omer Tsimhoni, Michael Shivak, Michael J. Flannagan, Report No. UMTRIͲ2009Ͳ1, January 2009) Theseaspectsneedtobetakenintoconsiderationwhileplanningthesafetymeasuresor the accident prevention measures. The following section discusses the prevention measureswhicharecurrentlybeingdiscussedandtheoneswhicharerecommendedfor futurediscussion. 8.4 PreventionMeasures The road safety measures to be taken up by the central government come under the DepartmentofRoadTransportandHighways.ThedepartmenthassetupaRoadSafety Cell, to take care of matters relating to the National Road Safety Plan. It prepares and implements the Annual Road Safety Plan. It also compiles road accident data and interactswithstatesonissuesofroadsafety. SchemesUndertheRoadSafetyCell ThefollowingimportantactionplansareadministeredbyRoadSafetyCell: x Publicityprogram x GrantsͲinͲaidtovolunteerorganizationsforroadsafetyprogram x NationalHighwayAccidentReliefServiceScheme x Refreshertrainingforheavyvehicledriversinunorganizedsector x Settingupmodeldrivertrainingschools (Source:MORTH,2008(http://morth.nic.in/index1.asp?linkid=77&langid=2)) ActivitiesImplementedbytheRoadSafetyCell As a part of the above plans, the following activities have been taken up by the Road SafetyCell(AnnualReport,2008): x A public awareness campaign was carried out in the electronic/print media. The campaign included calendars depicting road safety messages, broadcasts of radio jingles, computerized animation displays, etc. Television spots on road safety are I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 61 telecastontheNationalNetworkofDoordarshan.Thejinglesindifferentlanguages arebroadcastonvariouschannelsofAllIndiaRadioinordertocreateawarenesson variousaspectsofroadsafety.Publicitymaterialslikecalendars,pamphlets,posters, etc. are supplied to NGOs and to transport and police authorities in states/union territoriesfordistribution. x GrantsͲinͲaidweresanctionedto120NGOsforundertakingroadsafetyprograms. x ThenineteenthRoadSafetyWeek,withthetheme“DrivetoCare!NottoDare!”was observed throughout the country involving state governments, voluntary organizations,vehiclemanufacturers,stateroadtransportcorporations,etc. x More than 59,000 drivers were trained during 2008Ͳ2009 under the scheme of refreshertrainingtoheavyvehicledriversintheunorganizedsector. x Assistance for setting up model drivers' training schools is being provided to state governments/NGOs. A new school has been sanctioned for Nagaland during the periodunderreport.AnothernewdrivingtrainingschoolforMadhyaPradeshisalso underprocess. x Cranes and ambulances are provided under the National Highways Accident Relief ServiceScheme(NHARSS)tostates/unionterritoriesaswellasNGOsforclearingthe accident sites and to take accident victims to the nearest medical centers. During 2007Ͳ08, 31 cranes were provided to various states / UTs. It is expected that 71 ambulanceswillbeprovidedtothestates/UTs/NGOsduringthecurrentyear. x AnationalawardonroadsafetyisgiveneveryyeartoNGOsaswellasindividualsfor commendableworkinthefieldofroadsafety.TheawardamountforwinnersisRs.1 lakhforNGOcategoryandRs.50,000fortheindividualcategory.Fortherunnersup the amount is Rs. 30,000 under the NGO and Rs. 15,000 under the individual category. ReviewoftheAboveActivitiesTakenUpandSuggestionsforFutureActivities x While activities like grants to NGO and, cash awards to people doing good work is appreciated,investmentsinactivitieslikepublicawareness,safetyweeks,anddriver education need to be reviewed. Empirical evidence shows that these activities are not likely to be effective in improving safety. (Sources: The Way Forward, 2005) Therefore,divertingthesefundstoactivitiesrecommendedbyexpertsonroadsafety andinjurypreventiontechniquesseemsthemostlogicalwaytoapproachimproving wellbeing. x The safety measures specific to twoͲandͲthreeͲwheelers mentioned in this section are: I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 62 o Trafficcalmingduringoffpeakhours,whenthespeedsarelikelytobehigherand crashprobabilityincreases o Placingroundaboutsatintersections o Restrictifreeleftturnsatintersections o Enforceofhelmetlaws o Pedestrianfriendlyfrontendsofvehicles o Improvingthecrashworthinessofvehicles o Makevehiclesmorenoticeabletoreducenighttimecrashes o Randomalcoholbreathtesting o Restregulationsfortruckdrivers o Mandatoryuseofheadlightsduringdaytime. (Mohanetal,2009) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 63 9 ModeShareandModePreference 9.1 ModeSharesofDifferentCategoryCities Thefollowingtablegivesthemodalsplitofthetripsmadeinvariouscities,categorized accordingtopopulation. Table28ModeShare(%)Ͳ2007(WithWalk) Population CityCategory Walk Cycle 2ͲW (inmillions) <0.5withplain CategoryͲ1a terrain <0.5withhilly CategoryͲ1b terrain 3ͲW PT Car 34 3 26 5 5 27 57 1 6 0 8 28 CategoryͲ2 0.5Ͳ1 32 20 24 3 9 12 CategoryͲ3 1Ͳ2 24 19 24 8 13 12 CategoryͲ4 2Ͳ4 25 18 29 6 10 12 CategoryͲ5 4Ͳ8 25 11 26 7 21 10 CategoryͲ6 >8 22 8 9 7 44 10 28 11 16 6 27 13 National Average Source:MoUDreport,2008 Table29ModeShare(%)Ͳ2007(WithoutWalk) City Population Category (inmillions) Mini Car/Jeep/ Comm. Bus* Bus Van 2W 3W vehicles NMT 9 4 17 30 14 9 17 <0.5 with CategoryͲ1a plainterrain <0.5withhilly CategoryͲ1b terrain 6 15 40 33 0 5 0 CategoryͲ2 0.5Ͳ1 7 2 17 32 20 6 16 CategoryͲ3 1Ͳ2 6 4 19 33 20 5 14 CategoryͲ4 2Ͳ4 6 2 23 36 16 4 13 CategoryͲ5 4Ͳ8 9 2 20 37 21 4 7 CategoryͲ6 >8 12 3 31 23 23 3 4 (*ͲIncludingandtouristandeducationpurposebuses) (MoUDreport,2008) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 64 9.2 TripLengthsofVariousCities Triplengthplaysanimportantroleinmodechoice.Theaveragetriplengthsoftheabove categories of cities are given in Table 30. As the population of the city increases, the averagetriplengthsgetlonger.Sincetheaveragetriplengthsincitieswithpopulations greaterthan2millionisgreaterthan5kms,usingnonͲmotorizedtransportlikebicycles leads to long travel times and increased use of motorized transport like twoͲwheelers andcars(Tables11,24,25). Table30AverageTripLengthsofDifferentCategoryCities Population CityCategory (inmillions) AverageTriplength(km) <0.5millionwith CategoryͲ1a plainterrain 2.4 <0.5millionwith CategoryͲ1b hillyterrain 2.5 CategoryͲ2 0.5Ͳ1 3.5 CategoryͲ3 1Ͳ2 4.7 CategoryͲ4 2Ͳ4 5.7 CategoryͲ5 4Ͳ8 7.2 CategoryͲ6 >8 10.4 (MoUDreport,2008) 9.3 AdvantagesProvidedbytheTwoͲWheelers The twoͲwheeler modal shares in vehicular traffic were briefly discussed in Section 5.1 whereitwasobservedthat,forallthecitieswithpopulationlessthan8,000,000,twoͲ wheelerscatertobetween30and37%ofthetotalmodes.Theaveragetriplengthsin cities with population less than 8,000,000 are less than or equal to 7.2 kms. For trip lengths of this range, twoͲwheelers provide users with the following advantages when comparedtopublictransport: i. Doortodoorservice, ii. Lesserorcomparablecostcomparedtopublictransportforshorttrips iii. Easymaneuverabilityinhightrafficconditions, iv. Easier trip changing compared to public transport (eg. home, work, shopping, home) ThereductioninthenumberoftwoͲwheelertripsforcitieswithpopulationgreaterthan 8,000,000canbeexplainedbytheiraveragetriplengthof10.4kms. Forsuchlongtrip I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 65 lengths, people are likely to choose a mode which is either more comfortable or less expensive or more time saving. The people opting for higher comfort shift to cars and peopleoptingforcheapermodesshifttopublictransport. 9.4 ThreeͲWheelerModeShareandThreeͲWheelIndexinCities Fromthemodeshare(withoutwalking)(Table30),itcanbeobservedthatforallcities with population greater than 500,000 the threeͲwheeler mode share is consistently in therangeof16to23%,aroundtwicethemodeshareforpublictransport.Incitieswith populationlessthan500,000andinplainterrain,thethreeͲwheelermodeshareis14%, whichcanbeexplainedbyshorttriplengthsandthelesserrequirementofparaͲtransit. Inhillyareaswithpopulationlessthan500,000,threeͲwheelermodeͲshareiszero,which canbeexplainedbythedifficultyinoperatingthethreeͲwheelersinhillyterrain. ThreeͲWheelerAvailabilityIndexofCities TheavailabilityofthreeͲwheelersorthefleetsizeofthreeͲwheelersplaysanimportant role in determining the number of people opting to use them. Therefore, an index indicating the number of threeͲwheelers available in a city as a function of their populationhasbeendevelopedandisexplainedbelow(table31). ThreeͲwheeleravailabilityIndex=numberofthreeͲwheelersregisteredper 1lakhpopulation I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 66 Table31NumberofAutoRickshawsintheSelectedCities S.No City No.of3Ws(2005) No.of3W/lakhpopulation 1 Gangtok Nil 0 2 Panaji 293 302 3 Shimla Nil 0 4 Pondicherry 2017 397 5 Bikaner 4125 645 6 Raipur 7478 1040 7 Bhuvaneshwar 3421 405 8 Chandigarh 7256 751 9 HubliͲDharwad 8407 868 10 Guwahati 5567 525 11 Amritsar 9903 913 12 Trivandrum 7152 637 13 Madurai 6361 537 14 Agra 4884 357 15 Bhopal 11620 797 16 Kochi 12742 701 17 Patna 16302 888 18 Varanasi 12221 645 19 Nagpur 10666 505 20 Jaipur 12513 467 21 Kanpur 5252 193 22 Surat 19512 631 23 Pune 44590 1062 24 Ahmedabad 43865 739 25 Hyderabad 48898 766 26 Chennai 45016 642 27 Bangalore 77375 897 28 Delhi 104747 756 29 Kolkata 41946 285 30 Mumbai 156261 883 (MoUDreport,2008) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 67 Figure12ComparisonofThreeͲWheelerIndexofVariousCities City wise 3W Index Average Index 3W Index (No. of 3W per 10 lakh population) 125 100 75 50 25 Mumbai Delhi Kolkata Chennai Bangalore Hyderabad Pune Ahmedabad Surat Jaipur Kanpur Nagpur Patna Varanasi Kochi Agra Bhopal Madurai Amritsar Trivandrum Guwahati Chandigarh Hubli Dharward Raipur Bhubaneswar Bikaner Pondicherry Panaji Shimla Gangtok 0 Name of the City TheautorickshawpopulationinselectedcitiesispresentedinFigure12.Citiessuchas Gangtok and Shimla do not have auto rickshaws. For other cities, the number of auto rickshawsper100,000populationrangesbetween190inKanpurto1,060inPune.Pune hasthehighestnumberofautorickshawsper100,000population. Also, from the graph it can be observed that there is no particular relationship betweenpopulation(indirectlythesizeofthecity)andtheavailabilityofthreeͲwheelers. Majormetrocitiesgenerallyhavehighernumberofautorickshawscomparedtosmaller cities because they act as a feeder service to public transport and also because of the endͲtoͲendservicetheyprovide,whichisnotalwayspossibleforthepublictransport.It is observed that cities without public transport have a higher number of IPT vehicles. Hence the number of threeͲwheelers in any city is based on the local conditions, like financial options and road infrastructure. National policies are not having a uniform effectthroughoutthecountry. However, the numbers given here may not accurately give the actual number of threeͲwheelers operating on the roads (Ref: Autofuel policy study, CRRI). A large percentageofthevehiclesregisteredwiththeRTOswerefoundtonotbeoperatingso vehicleownershipdoesnotnecessarilytranslateintovehiclesontheroad. Final Report P a g e | 68 9.5 TimeSeriesDataonTwoͲandͲThreeͲWheelerModeShare ThedataprovidedherewascollectedduringaresearchprojectdonebyTRIPP,IIT Delhifrom2002to2006.Fiveintersections,amongthebusiestinDelhi,wereselected fromvariouspartsofthecity.Abriefintroductiontotheimportanceofthese intersections,theirconnectingroadsandthelandͲusepatternoftheareaisgivenhere. AurobindoIntersection OnAurobindoMarg,theroadalongwhichthisintersectionisplaced,aresomevery importantplacesinDelhi.Fewoftheimportantonesareshoppingareas(DelhiHart, GreenPark)hospitals(AIIMS,Safdarjung),educationalinstitutions(IITDelhi,NCERT), residentialareas(HauzKhas,GreenPark)andtouristspots(QutabMinar). HazratNizammudinIntersection ThiscrossingisonMathuraroadgoingtowardNoida,MathuraandAgra.Thisjunctionis themainentranceforNizammudinRailwayStationandanadjacentaheavyresidential area. ISBTintersection ThisintersectionisonabusyringroadinNorthDelhineartheInterStateBusTerminal. OneoftheroadsconnectsSahadrainEastDelhiandGhaziabadtotheringroad.The DelhiUniversitycampusalsoisverynearthisjunction. ITOintersection ITOhasthehighestvolumeatthecorrespondingtimeintervalsofthefiveselected intersections.ThisareaishometosomeveryimportantofficeslikeDelhiPolice Headquarters,DDA,InstituteofEngineersandTheTimesofIndia.Withina1.5Ͳkilometer radiusoftheintersectionareIndiaGate,PragatiMaidan,SupremeCourt,DaryaGanj, DelhiGate,NewDelhiRailwaystation,ConnaughtPlaceandYamunaBridge,Delhi Secretariatandtheringroad. PunjabiBaghIntersection ThiscrossingisontheringroadandisusedbycommutersgoingtoRohtak.Aheavy residentialareathatcreateshightrafficvolumesislocatedonbothsidesofthecrossing. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 69 Thedatacollectedduringthemorningpeakof9to10a.m.wasanalyzed.These intersectionsareevenlyspacedoutaroundthecity,soitisunlikelythatduringthepeak hour,thesamevehiclesarecountedmorethanonce. Figure13givesthevariationofthetotalvolumeoftwoͲwheelerspassingthrough thesesectionsduringthepeakhour. Figure13PeakHourTwoͲWheelerVolumesattheFiveIntersectionsSelectedinDelhi Time Series Peak Hour 2W Volumes 8000 7000 2-Wheeler Volume 6000 5000 4000 3000 2000 1000 0 Aurobindo Chowk H. Nizamuddin ISBT ITO Punjabi Bagh Location 2002 2003 2004 2005 2006 Source:TRIPP,IITDelhi Atthreeofthefiveintersectionsconsidered,thetwoͲwheelervolumescontinuously increasedoverthefiveͲyearperiodwhileatISBTintersection,thevolumein2006 remainedalmostthesameasin2002.InthecaseoftheITOintersection,thetwoͲ wheelervolumesincreasedbyabout2,000veh/hr(4,324to6,873)fromtheyear2002to 2003andhaveslightlyreducedinthelateryears.ButITOstillhasthehighesttwoͲ wheelersamongalltheintersections,followedbyPunjabiBagh. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 70 Figure14PeakHourThreeͲWheelerVolumesattheFiveIntersectionsSelectedinDelhi Time Series peak Hour 3W Volumes 2500 3-Wheeler Volume 2000 1500 1000 500 0 Aurobindo Chowk H. Nizamuddin ISBT ITO Punjabi Bagh Location 2002 2003 2004 2005 2006 (TRIPP,IITDelhi) Atfourofthefiveintersections,thenumberofthreeͲwheelerscontinuouslyincreasing increaseduntil2005andthendecreasein2006.Thiscanbeattributedtotheage restrictionsandtherestrictiononthetotalnumberofthreeͲwheelersinthestatebythe Delhigovernment. ThepercentageoftwoͲandͲthreeͲwheelersinthetotaltrafficisdiscussedinthe followingsections.Figure15givesthemodalshareoftwoͲwheelersatthefive intersections,inthefiveyearsobserved. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 71 Figure15TwoͲWheelerModalSharesatFiveIntersectionsforFiveYearsinDelhi 2W Modal Share in Delhi 50 50 40 % 2W in Traffic 40 38 37 37 35 37 30 31 33 34 33 33 35 42 43 42 44 43 43 45 41 36 30 30 30 20 10 0 Aurobindo Chowk H. Nizamuddin ISBT ITO Punjabi Bagh Location 2002 2003 2004 2005 2006 (TRIPP,IITDelhi) ThestudyrevealednopatternsthatshowthemodalshareoftwoͲwheelersischanging withtime.ThethreeͲwheelermodalsharesareshownintheFigure16. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 72 Figure16ThreeͲWheelerModalSharesatFiveIntersectionsOverFiveYearsinDelhi 3W Modal Share in Delhi 20 18 17 16 15 13 14 14 14 13 % 3W in Traffic 13 12 12 12 14 14 13 13 11 11 11 10 10 10 9 9 8 8 7 6 6 7 6 4 2 0 Aurobindo Chowk H. Nizamuddin ISBT ITO Punjabi Bagh Location 2002 2003 2004 2005 2006 (TRIPP,IITDelhi) ThestudyshowsthemodalshareofthreeͲwheelersintraffichasincreasedmarginally overtheperiodofobservation.TogettheoverviewofthemodalsharetrendsoftwoͲ wheelersandthreeͲwheelersinthecity,theiraverageistakenforeachyear.The averagevaluesofmodalsharesarepresentedinthefollowingtable. Table32AverageModalShareofTwoͲandͲThreeͲWheelersattheFiveIntersections Average ModalShare YearofObservation 2002 2003 2004 2005 2006 %2W 36 38 38 38 38 %3W 10 10 11 13 12 ThetwoͲwheelermodalshareremainedalmostconstantthroughoutthestudywhilethe shareofthreeͲwheelershasfluctuatedwithinarangeof3%. Inconclusion,itcanbesaidthatovertimethemodalshareoftwoͲandͲthreeͲwheelers, isstayingatrelativelythesameproportionthoughthetotalvolumeofvehicles/flowis increasing. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 73 9.6 PurposeWiseforTripsforVariousModes Inthissection,datafromfoursamplecitiesͲͲDelhi,Hyderabad,PuneandPatnaͲͲwere selectedfromfourpopulationcategoriesandanalyzedtogetapictureofhowtripsare distributed. WorkTrips Thefollowingtablegivesthemodesplitofthefourcitiesforworktrips. Table33ModeSplitfortheWorkTripsofVariousCities City Population Bus Car 2W 3W Cycle Walk Train Total 14 17 20 10 18 4 18 100 Hyderabad 5Ͳ10million 36 4 48 4 5 3 0 100 Pune 2Ͳ5million 23 19 11 5 19 7 16 100 Patna 1Ͳ2million 5 15 18 5 13 41 3 100 Delhi Category >10million Source:DMRCreport:RITES,2001,BRTSMasterPlan,Pune,PrimarySurveyͲPatna, 2009,HyderabadMMTSReport,L&TRamboll Except in Pune, twoͲwheelers are the preferred option for trips to work in the cities studied. This can be attributed to their affordability and the various advantages mentionedinsection10.3providedbythetwoͲwheelers. EducationTrips Thefollowingtablegivesthemodesplitofthefourcitiesforeducationtrips. Table34ModeSplitfortheEducationTripsofVariousCities Population Bus Car 2W 3W Cycle Walk Train Total 15 5 2 23 9 46 0 100 Hyderabad 5Ͳ10million 62 2 21 7 4 4 0 100 Pune 2Ͳ5million 6 7 11 17 17 26 15 100 Patna 1Ͳ2million 31 3 7 23 14 0 21 100 City Delhi Category >10million Source:DMRCreport,RITES,2001,BRTSMasterPlan,Pune,2008CMPPatna,2009, HyderabadMMTSReport,L&TRamboll AmongeducationtripsinHyderabadandPatna,schoolbusandpublictransporthadthe highestusage,whereasinDelhiandPune,threeͲwheelershavethehighestshare.Even I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 74 in Patna, the share of threeͲwheelers is high at 23%. This is because children and studentsinmostIndiancitiesusethesameautorickshawwhentheyhavesimilarorigins anddestinations. SocialandRecreationalTrips All the other trips, apart from work and education, are grouped into social and recreationaltrips.Themodeshareofthesetripsisgiveninthetablebelow. Table35ModeSplitfortheSocialandRecreationTripsofVariousCities Population Bus Car 2W 3W Cycle Walk Train Total 18 21 9 22 4 3 24 100 Hyderabad 5Ͳ10million 50 4 26 12 2 7 0 100 Pune 2Ͳ5million 11 15 21 23 6 14 11 100 Patna 1Ͳ2million 14 19 15 17 15 0 20 100 City Delhi Category >10million Source:DMRCreport,RITES,2001,BRTSMasterPlan,Pune,2008CMPPatna,2009, HyderabadMMTSReport,L&TRamboll PublictransportuseforsocialandrecreationtripsislowwhileuseofthreeͲwheelersand personalized modes like cars and twoͲwheelers is high. This is because comfort is the firstpriorityforsocialtripsandcostissecondary. In conclusion, the data presented here indicates that twoͲwheelers mainly serve those goingtowork,whilethreeͲwheelersareusedforeducation,recreationandshopping. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 75 10 Parking Thissectiondiscussescurrentparkingpoliciesandgovernmentplans,existingstandards andtheirdrawbacksandtherecommendationsforfutureworkinthisarea. 10.1ParkingPolicy(NUTP) ThefollowingguidelinessetoutbytheMinistryofUrbanTransportintheNationalUrban Transport Policy (NUTP), act as a broad framework within which parking strategies are developed: x Levy a high parking fee that truly represents the value of the land occupied to makepublictransportmoreattractive x Provideparkandridefacilitiesforbicycleuserswithconvenientinterchanges x GradedscaleparkingfeesshouldaimtorecoverthecostoflandͲusedforparking andelectronicmeteringshouldbeusedwidely x State governments should amend building bylaws in all million plus populated citiessothatadequateparkingspaceisavailable x Bylawsshouldcontrolparkinginresidentialareas x MultiͲlevel parking complexes should be mandatory in city centers that have highͲrise commercial complexes and will be given priority under the national urbanrenewalmission(NURM) Inadditiontotheaboveguidelines,acityͲspecificparkingpolicyisalsooutlinedbelow: 10.2CityParkingPolicy The policy states that each city should develop a comprehensive mobility plan or transportmasterplanthatincludesastrategyforparkingcontrolswithinthecityand conforms to the national policy outlined above. The following list provides a summary of components typically used by cities worldwide. The design of parking measuresshouldconformtotheadoptedstrategyofthecity. Componentsofparkingstrategy: x StrategyconsideringlocationandlandͲuse x CharacteristicsofonͲandͲoffstreetparking x SelectionofonͲstreetparkingoptions x Potentialforprivatesectorinvolvement x Pricingstrategies I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report x P a g e | 76 Additionalconsideration The policy also mentions that parking controls are an effective tool for restricting excessive use of private cars. Public transport and nonͲmotorized transport (NMTs) for shorter trips can be encouraged by restricting the number of parking spaces. No twoͲ wheeler and threeͲwheeler parking strategy is explicitly proposed but it is understood thatthepolicytiltsmoretowardencouragingpublictransport(ofwhichthreeͲwheelers areasubsetandactasintermediatepublictransport(IPT).However,nospecificstance toencourageordiscouragetwoͲwheelersistaken.SincecarsandtwoͲwheelersareboth private modes of transport, it is understood that both are encouraged to a lesser degree.. IRC SP 12:1973 gives the ”Tentative Recommendations on the Provision of Parking SpacesforUrbanArea.”OnlytheareatobeearmarkedforparkinginvariouslandͲuse types are specified but the proportion of parking area for transport modes is not specified.Theequivalentcarspace(ECS)ismentionedforvariousvehiclesasprovidedin thetablebelow. Table36EquivalentCarSpace(ECS)byTypeofVehicle VehicleType ECS Car/Taxi 1 twoͲwheeler 0.25 AutoRickshaw 0.5 Bicycle 0.1 Source:MoUDGuidelines,June2008. Thisinherentlyassumesthattheamountofparkingprovidedwillbelocationspecificand is left to the discretion of the parking provider to divide the land for various modes. However, this may lead to a disproportionate allocation of land. Also, all parking standardsarerecommendedintermsofcarspacesprovidedaspartofthebuiltuparea. Inacountrywherefewerthan13%ofthepopulationowncars,thismayleadtooverͲ estimationofrequiredparkingarea. 10.3NewVehicleParkingSchemes: TheNUTPsetsoutspecificstepsinvolvedfromplanningtoexecutionofanewparking scheme.Thisincludes: a. Studiestoevaluatethesuitabilityofascheme I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 77 b. Stepsinvolvedinthedesignprocess c. Financialoptionsfornewparkingplaces Thesestepshavebeenexplainedindetailinthefollowingsections: (MoUDGuidelines,2008) 1. StudiestobeConductedtoEvaluatetheSuitabilityofaParkingScheme Thefollowingchecklistmaybeusedtoassessthesuitabilityofaparkingscheme(Y\N). x IsthenumberofonͲstreetparkingspacesappropriatetoencourage publictransportuseandtopromoteanattractivepedestrianenvironment? x IsthenumberofoffͲstreetparkingspacessufficienttoprovideabalance wherethereisareductioninonͲstreetspaces? x ArepublicoffͲstreetparkingfacilitieslocatedwithinanacceptablewalking distanceofactualdestinations?(forshortͲstayparking–i.e.lessthenfour hours–acceptablewalkingdistancerarelyexceed500meters.) x Isprioritygiventoresidentsandshortstayparking?(Computerparkingcan beaccommodated,butitshouldnotbeattheexpenseofresidentsandshort stayvisitors.) x Doestheparkingschemedividethecityintocoherentzones,withregulation appropriatetotheparticularcircumstancesofeachzone(i.e.thestrictest regulationsareusuallyrequiredinareaswiththehighestparkingvolumes). x IstheregulationandtariffforpubliconͲstreetparkinghigherthanfor offͲstreetparking? x Isthereadequateenforcementtoensurecompliancewiththeparking regulations? I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 78 2. Stepsinvolvedinthedesignprocessofavehicleparkingscheme The selection and subsequent design of an appropriate city parking scheme requires a number of stages, summarized below. In each of the steps, the heading indicates the worktobedoneandthepointsbelowitindicatethebasisuponwhichtheworkistobe done: Step1: Diagnosetheexistingsituation a. Parkingsupplyinventory b. Parkingutilizationstudy c. Demandanalysisandprojections Step2Considerpotentialmeasures a. Supplymeasures b. Demandmeasures Step3Selectappropriatemeasures a. Comprehensivemobilityplan Step4Designappropriatemeasures a. Consultwithstakeholders 3. FinancialOptionsforNewParkingPlaces Public private partnerships (PPP) are being explored as attractive options to high cost, multiͲlevelparkingincitycenterswhenthemunicipalityalonecannotmeetconstruction, development and maintenance needs. In this model, a private entity obtains the right from a government agency to provide a service under market conditions. The arrangementallowsassetownershiptoremaininpublichands,butnewinvestmentsin addition to operation and maintenance becomes the responsibility of the private operator. Theabovepracticesarefornewparkingprovisions.Inalreadydevelopedparkingareas whichownedbythemunicipalities,theoperationandmaintenanceworkisalreadybeing leasedtoprivateentitiesmanycities. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 79 10.4ExistingpracticesandDrawbacks IRCSP12gives”TentativeRecommendationsontheProvisionofParkingSpaces forUrbanAreas.”ItspecifiesthespacefordifferentlandͲusesintermsofsquaremeters orcarspaces.ThefollowingaretheparkingspacesrecommendedfordifferentlandͲ uses. 1Residential (i)Detached,semiͲdetachedandrowhouses: Plotareaupto100squaremeters Plotareafrom101to200square meters Plotareafrom201to300square meter Noprivateorcommunityparkingspacerequired Onlycommunityparkingspacerequired Onlycommunityparkingspacerequired Plotareafrom301to500square MinimumoneͲthirdoftheopenareashouldbe meters earmarkedforparking Plotareafrom501to1,000 MinimumoneͲfourthoftheopenareashouldbe squaremeters earmarkedforparking Plotareafrom1,001square MinimumoneͲsixthoftheopenareashouldbe metersandabove earmarkedforparking (ii)Flats Onespaceforeverytwoflatsof50to99squaremetersormoreoffloorarea. Onespaceforeveryflathaving100square meters ormoreoffloorarea. (iii)Special,costlydevelopedarea: Onespaceforeveryflatof50to100squaremeters offloorarea. Oneandahalfspacesforeveryflatof100to150squaremetersoffloorarea. Twospacesforeveryflatofabovea150squaremetersoffloorarea (iv)MultiͲstoried,grouphousingschemes: Onespaceforeveryfourdwellings,exceptincitieslikeKolkataandMumbaiwherethe demandmaybemore (IRCSP12) 2OfficesͲͲOnespaceforevery70squaremetersoffloorarea. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 80 3IndustrialPremisesͲͲOnespaceforupto200squaremetersofinitialfloorarea. Additionalspacesattherateofoneforeverysubsequent200squaremetersorfraction thereof. 4ShopsandMarketsͲͲOnespaceforevery80squaremetersoffloorarea. 5RestaurantsͲͲOnespaceforevery10seats 6TheatresandCinemasͲͲOnespaceforevery20seats 7HotelsandMotels (i)FiveandFourstarhotelsͲͲOnespaceforeveryfourguestrooms (ii)ThreestarhotelsͲͲOnespaceforeveryeightguestrooms (iii)TwostarhotelsͲͲOnespaceforevery10guestrooms (iv)MotelsͲͲOnespaceforevery10beds Itisalsospecifiedthattheminimumcarparkingspaceis3m*6m,whenindividual parking space is required and 2.5m*5m when parking lots for community parking are required. The truck space is specified at a minimum of 3.75m*7.5m. No other space requirementsarespecified. The scope of the book itself states that “The recommendations are only tentative andreasonablerelaxationfromthesemaybeallowedinparticularcircumstances”.Asa resulttheenforcementoftheseguidelinesisdifficult. No data exists on segregating parking space between cars and twoͲwheelers. . Further research is needed before concluding whether it is done according to some principleorbasedonthejudgmentoftheparkingspaces’owner. 10.5RecommendationsforFutureParkingStudies Inconclusion,parkingisoneareainwhichverylittleresearchhasbeendone. Therefore,littleevidenceisavailableaboutconditionsontheground,theproblems facedbypeople,authoritiesandtheoneswithlicensesofparkingspaces.Itisstrongly recommendedthataresearchprojectlookingatparkingissuesincitieswithvarying population,sizeandothersuchlocalissuesshouldbetakenupasearlyaspossible. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 81 11 NoisePollutionandControlTechnologies ThissectiontakesupnoiselegislationsandstandardsinIndia;howwelltheyarebeing implementedandpossiblewaystoreducenoisepollutionlevels. 11.1LegislationsonNoiseControlinIndia FollowingarevariouslawsinIndiarelatedtonoisecontrol. 1 Environmental (Protection) Act, 1986 (Noise Limits for Motor Vehicles (revision) Ͳ 2000) 2Air(Prevention&ControlofPollution)Act,1981 3FactoriesAct,1948 4MotorVehiclesAct,1988 Section119specifiesthateverymotorvehiclebefittedwithanelectrichornand any multiͲtoned horns that produce shrill, loud or alarming noises are not permissibleunderlaw.Butthislawisnotenforcedproperly Section120requiresthateverymotorvehiclebefitted With a muffler device which reduces the noise that would otherwise made by escapeofexhaustgasesfromtheengine. Italsospecifiesthateverymotorvehicleshallbesoconstructedandmaintained astoconformtothenoisestandardsformotorvehicles. 5IndianPenalCode–Sections268,290&291 6CriminalProcedureCode–Section133 7LawofTorts 8LocalActs/Rulesregulatingloudspeakersetc. Among all the regulations in the above mentioned legislations, the one’s which are relevanttothisstudyareexplainedbelow. 11.2AmbientNoiseStandards(NoiseRules,2000andits Amendments) NoiseStandardsforVariousLandͲusedevelopments In these standards, various areas have been categorized by landͲuse and individuallimits. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 82 Table37NoiseLimitsforVariousLandͲusePatterns Category of Area / LimitsindB(A)Leq Zone Daytime Nighttime Industrialarea 75 70 Commercialarea 65 55 Residentialarea 55 45 SilenceZone 50 40 Note:Ͳ 1. Daytimeshallmeanfrom6a.m.to10p.m. 2. Nighttimeshallmeanfrom10p.m.to6a.m. 3. Silencezoneisanareacomprisingnotlessthan100metersaround hospitals,educationalinstitutionsandcourts,religiousplacesoranyother areawhichisdeclaredassuchbythecompetentauthority. 4. Mixed categories of areas may be declared as one of the four abovementionedcategoriesbythecompetentauthority. (Source:www.cpcb.nic.in) NoiseLimitsforVehiclesatManufacturingStage The following table gives the noise limits specified for twoͲandͲthreeͲwheelers as a function of their engine capacities. These limits are specified to discourage users from operatingvehicleswithoutpropermufflersystems. Table38NoiseLimitsforTwoͲWheelersandThreeͲWheelersofDifferentEngineTypes Sl.no. Typeofvehicles Noiselimitsdb(a) 1 TwoͲwheelers 1.1 Displacementupto80cc 75 1.2 Displacementmorethan80ccbutupto175cc 77 1.3 Displacementmorethan175cc 80 2 ThreeͲwheelers 2.1 Displacementupto175cc 77 2.2 Displacementmorethan175cc 80 (www.cpcb.nic.in) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 83 Extensive checks need to be carried out as to whether these limits are enforced. Even though nationwide data is unavailable, there are some numbers from various hospital locationsinDelhi.Thepeakhourlevelstherearepresentedbelow. Table39NoiseLevelsNearHospitalsinDelhi Noise level (dB) Ͳ Noiselevels(dB)Ͳ Location day night AIIMS 87 77 hospital 83 103 KalawatiSaranhospital 83 103 GuruTegBahadurhospital 82 102 DrRMLhospital 71 Ͳ Safdarjunghospital 88 Ͳ LNJPhospital 80 90 MoolChandhospital 60 69 Jai Prakash Narayan (www.cpcb.nic.inͲ2007) Hospitalscomeundersilencezonessonoiselevelsthereshouldnotexceed50decibels duringthedayand40decibelsatnight.However,theactuallevelsobservedarehigher duringthenightandinbothtimeperiodsaregreaterthantheprescribedlimitsatallthe locations. The higher noise levels at nightcanbe attributed to increased movement of heavy vehicles (trucks, trailers, etc.), which are banned in the city during the day. This shows that the noise limits are not being observed and further reduction in the noise produced by traffic is to be achieved. The following section discusses the control measuresthatcanbeadoptedinthisregard. 11.3NoiseControlandRegulationProcedures Reductionintheambientnoiselevelscanbeachievedbythefollowingmeasures: Advancednoisecontroltechnologiesinvehicles Varioustechniquesfornoisecontrolareavailableandshouldbeconsideredatthedesign stage.Mostnoisesources(exceptforaerodynamicnoise)areassociatedwithvibrating surfaces. Hence the control of vibration is an important part of any noise control program. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 84 Betterenforcementofnoiselaws Stricterlawsfornoiselevels,theissuanceofmorepollutioncertificatestoviolatorsand greaterenforcementoftheselawsarerequired I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 85 12 PolicyRecommendations Thissectiondiscussestherecommendationsonthemixofpoliciesneededtopromote safeandefficienttwoͲwheeleruseinurbansettingsofIndia.Thissectionisbasedon opinionscollectedbyexpertsinvolvedinresearchonissuesrelatedtotwoͲwheelersand threeͲwheelersandispresentedundertwoheadings,oneaboutthesafeandefficient useoftwoͲwheelersandoneforthesafeandefficientuseofthreeͲwheelers. 12.1SafeandEfficientUseofTwoͲWheelers SafeUseofTwoͲWheelers PoliciesrecommendedtoimprovethesafetyoftwoͲwheelerusersare: a. NotificationofHelmetLawinallStates Helmetlawsfallunderthejurisdictionofstategovernments.Andnotallstateshavenot havedeclaredthathelmetusageismandatory.Eveninstateswhereitismandated,it appliesonlyforthedriversbutnotforthepillionriders.Researchshowsthathelmets greatlyreducetheprobabilityofafatalityintwoͲwheelercrashes(WHOReport,2004). Hence,itisrecommendedthathelmetlawsbemandatoryforbothdriversand passengersinallstates. b. SegregationofHeavyTraffic Inurbanmixedtrafficconditions,twoͲwheelershavethemostconflictswithbuses (Table21).Thiscanbeattributedtothedifferenceinmassbetweenthetwovehicles. Therefore,itisrecommendedthatseparatebuslanesareprovidedwhereverpossibleto reduceconflicts. c. DaytimeHeadlightUsageforTwoͲWheelers Researchshowsthatturningontheheadlightsduringdayreducesroadtrafficcrashes (WHOReport,2004)andhencethisruleisrecommendedtobeimplementedinIndia. d. MakingTwoͲWheelersMoreVisible TwoͲwheelersarelessdiscernibleatnight,afactthatleadstoaccidents.Stepstakento improvethisarelikelytomakethemsafer. e. DiscouragingBiggerEngineSizesbyHigherTaxation Themotorcyclesalestrendsshowthatmoreandmorenewvehiclesarebeingsoldwith higherenginepowers(Iyer,2008).Higherpoweredenginesleadtohigherspeedsand arelikelytocausemoreaccidentsandgreaterpotentialcosttothesociety.Thecurrent taxationsystemdoesnothavedifferenttaxesfordifferentenginesizes.Bylevying progressivelyincreasingtaxeswithincreaseinenginesizes,thiscanbeovercometo I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 86 someextent,assumingthathighertaxesdiscouragepeoplefromgoingforhigher poweredengines. f. TrafficCalming Trafficcalmingatlocationswithahighincidenceofaccidentsleadstolowerspeedsand lessprobabilityofaccidents.Thisisrecommendedtobeimplementedatasmanycritical locationsaspossible. g. ProgressiveIncreaseintheUseofDiskBrakes Diskbrakesareasuperiortechnologytodrumbrakes,whicharethemostcommonly usedbrakesinIndia.Diskbrakesarecurrentlyusedonlyinsomehighendmotorcycles, probablyduetocostconstraints.Superiorbrakingtechnologyleadstoreduced accidents.Progressiveintroductionofdiskbrakesystemsinallthemotorcyclesis recommended. h. IntroductionofChildren’sHelmets Atpresent,onlyadulthelmetsareavailableinthemarketleavingchildrenwithno option.MeasurestointroducechildͲsizedhelmetswillreducefatalitiesamongchildren. EfficientUseofTwoͲWheelers ThecurrentoccupancyvalueofcarsinPatna(populationintherangeof1to2million)is 2.03,whilethatoftwoͲwheelerswithaPCUvalueof0.5to0.75hasanoccupancyvalue of1.30(Source:PrimarySurvey).Thevaluesofothercitiesfollowasimilarpattern.This indicatesamoreefficientusageofroadspacebythetwoͲwheelers.Evenatsignalized intersections,duringredtimes,itiscommontofindtwoͲwheelersweavingthroughthe gapsbetweenbiggervehiclestocometothestartofthequeueandtheyarethefirstto clearthequeueduringgreentimesasaconsequence.Thisisanotherinstanceof efficientspaceutilizationbythetwoͲwheelers. InthiswayindividualtwoͲwheelersarealreadyusingtheavailableroadspace efficiently.Iftheissueisbetteruseofroadspace,thesolutioncanbeoftwotypes: a. ReducingTwoͲWheelerUsage PoliciesaimedatreducingtheusageoftwoͲwheelersaltogetherandpromotingpublic andnonͲmotorizedtransportasanalternativeisthebestidea.Currently,twoͲwheelers chiefadvantagesaretheirendͲtoͲendserviceandthetraveltimetheysave.Providing goodpedestrianandnonͲmotorizedvehicle(NMV)infrastructure,likefootpathsand bicycletracks(currentlynonͲexistentinmostofthecities),islikelytoprovidethesame advantagesastwoͲwheelers.ThiswouldattractsomeofthetripscurrentlymadebytwoͲ andͲthreeͲwheelerstononͲmotorizedmodes.ThetripsstillmadebytwoͲwheelersare theonestheuserfindsbetterevenaftertheNMVfacilities.TheNMVfacilitiesarelikely I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 87 toshiftshorttrips,whilelongtripscanbeshiftedfromtwoͲwheelersbyprovidinga reliableandefficientpublictransportsystem. b. PromotingTwoͲWheelersasanAlternativetoCars ThesecondbestoptionistopromotingtwoͲwheelersasanalternativetocars.Inthe presentscenariocarsandtwoͲwheelerscatertotwodifferentnichemarketsandsteps shouldbeidentifiedandimplementedtoconvertatleastsomeofthecaruserstotwoͲ wheelers. c. ImprovedTrafficManagement PCUvaluesanddesignguidelines AsexplainedinChapter5,theexistingPCUvaluesanddesignpracticesfollowedin Indiaareerroneousandadetailedstudyofwaystocorrectthemneedstobe undertaken. RoadandIntersectiontrafficmanagement Undertheexistingsystem,normaltrafficengineeringdutieslikesignalsystemsat intersectionsandtrafficcirculationsatrotaries,etc.arelefttothetrafficpolice.This resultsinsuboptimalusageofurbanroadspace.Thesepracticesneedtobereviewed thoroughlyandnewandefficientpracticesshouldbeintroduced. d. ParkingIssues ParkingisaproblematicissueinIndiancities.Andproperscientificstudiesarefew. PracticesmoresuitedtoIndiantrafficconditionsneedtobedevelopediftheroadspace fortwoͲwheelersistobeusedmoreefficiently. e. PoliciestoReduceEmissions Emissionstandardsbasedpolicies:Thistopichasbeendiscussedseparatelyforold andnewvehicles. NewVehicles Emissionstandardsfornewvehicles(basedonatypeapprovalprocess)tendtobethe drivingforcetostimulatecleanervehicletechnologies.Experience,bothinandoutside Asia,demonstratesthatthisisthemosteffectivemethodtoreduceaverageemissions overtime.Thereisaneedtoconstantlyupgradetechnologytoimproveefficiencyof twoͲwheelers. Introduction of new technologies should neither be accomplished through promotion nor through a ban on specific technologies. Introduction should be achieved through “TechnologyForcing”standardsforemissionsandfuelefficiencywithdueconsideration tocostͲbenefitratios.Thishelpsindustryfindwaystoimproveitstechnologytomaintain the standards. However, emissionͲbased measures are more difficult to monitor than technologyͲbasedoptions. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 88 Newstandardsshouldbe”fuelͲneutral,”i.e.thesameforallfuelsandglobally harmonizedasfaraspossible.Thishelpsusersselecttheirpreferredfueltypewhile conformingtothestandards.Increasedeffortsarerequiredtoadoptalternative propulsionsystemsandfuels. StricteremissionstandardsareapparentlypushingIndianmanufacturerstobuildmore fourͲstrokeenginevehicles,thoughchangingcustomerprofilesandpreferenceshave alsoplayedapart. InͲUseVehicles ThereisaneedtotakeurgentstepstowardsintroducingeffectiveInspection& Maintenance(I&M)systemsfortwoͲwheelers(seediscussionofcurrentdrawbacksin Section4.3).Wherethesesystemsexistbutarenoteffective,improvementsshouldbe soughtandbasedontheeffectivesystemcurrentlyusedincountrieslikeTaiwan. ImplementationofI&MsystemandotherinͲusevehiclemanagementsystemsshouldbe backedupbyprogressivelyrefinedfiscalinstruments.Stepsneedtobetakentoreduce noiseemissions,theoneissuewhichismostneglected. Vehicleinspectionwillbeineffectiveifthevehiclesthatfailarenotrepairedpromptly. Theavailabilityofadequatelyequippedandtrainedmechanics,whichareinshortsupply due to the introduction of increasingly sophisticated fourͲstroke technologies, is a prerequisiteforasuccessfulI&Mprogram, It is necessary to ensure that fuels and lubricants (particularly for twoͲstroke engines) shouldbeofspecifiedqualityandwithoutadulteration.Solutionssuchasphasingout, upͲgrading and conversion of old vehicles to alternative fuels, appear to have limited possibilitiesandmaybeusedtospecificlocationsandconditions. TechnologyͲBasedPolicies Thefollowingtechnologybasedpoliciesarerecommendedtoreduceemissions. BantwoͲstrokeenginesgreaterthan10yearsoldfromurbanareas: This has been taken up in Delhi for threeͲwheelers. TwoͲstroke engines pollute more thanfourͲstrokeengines,asituationthatincreaseswithage..Sincebanningtwostroke engines would deny pointͲtoͲpoint access for millions of people, older vehicles which pollutemorearerecommendedtobeexcluded.InDelhi,thediesel/petrolusingthreeͲ wheelers having an age greater than 10 years were banned in March 2000 and are mandated to use cleaner fuels. A similar policy for twoͲwheelers can be taken up in urbanareas,wheretheconcentrationofemissionswillbehightoreducetheiremissions. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 89 BanNewTwoͲStrokeEngineVehicles ThisislikelytohavelesssocioͲeconomicimpactthanbanningallsuchvehicles,sincethe costdifferencebetweennewtwoͲandfourͲstrokeenginesisnotsignificant.Ifoperating and maintenance costs are included, the cost of twoͲstroke engine may even be more thanafourͲstrokeengine. Alltheabovemethodsarebestpursuedifthefollowingconditionsaremet: i. Alternatives for the vehicles being removed are readily available and marketͲ tested. ii. These alternatives areaffordable,which may require thelowering or elimination ofimportdutiesorothertaxesonnewvehiclesand iii. Sufficient credit exists for vehicle owners and drivers to finance the purchase of thenewervehicles. EconomicandFiscalinstruments Whetherornottechnologyspecificmeasuresareadopted,economicpolicyoptionsexist to encourage removal of older and more polluting vehicles from polluted cities. These optionsarediscussedbelow: Taxincentivesforvehiclerenewal The structures of taxes and other vehicle charges, such as annual registration fees, should be carefully reviewed and revised if necessary where such structures do not capture the cost of pollution. For example, the import tariffs or sales taxes on cleaner alternatives to threeͲwheelers (whether new vehicles or parts for vehicle retrofitting) shouldnotbesohighastodiscouragetheirpurchasesincethepublichealthbenefitsto be gained are high. Similarly, the annual registration fees based solely on the market value of the vehicle, rather than on market value and pollution emitted, would be too low to discourage the use of older vehicles in urban areas. In assessing each of these measures the policy makers need to weigh the socioͲeconomic cost of making it more expensive to own old vehicles against the health benefits of reducing vehicular emissions. Creditavailabilityforreplacingoldvehicles Governmenthelptoensuretheavailabilityofcreditthroughregularcreditandmicro creditmarketstofacilitatethereplacementofoldertwoͲstrokeenginesorauto rickshawswithcleaneronesislikelytoencouragetheprocess.Thisprovidesanincentive topeopleowningoldervehiclestoswitchtonewerandcleanervehicles. (Iyer,2008,TwoͲandͲthreeͲwheelers,Sourcebook,2009) I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 90 12.2SafeandEfficientUseofThreeͲWheelers FatalityratesshowthattravellinginathreeͲwheelerisverysafecomparedtoatwoͲ wheeler.Thevehicle’sdesignmakesitstablewhileonthemove. i. FareStructure AnexactfarestructureforthreeͲwheelersisnotformulatedorproperlyimplementedin many of the cities in India. Even where they are put into practice, grievances like not upgradingfarepriceswithfuelpricescropup andsome operatorschargeaccordingto what the;y perceive as reasonable. Therefore, people believe the operators are dishonestandalwayschargemorethatwhatisreasonable.(Mohanetal.,2003) ii. ReviewingtheLimitImposedonThreeͲWheelers DelhiseekstoreducecongestionbysettingalimittothetotalnumberofthreeͲwheelers permittedtoplytheroads.However,suchlimitsarenotimposedonanyothervehicle typeeventhoughtheyalsocontributetocongestion.Also,demandforthreeͲwheelersas a paraͲtransit is also increasing with the population while supply remainsconstant. So, the rationale behind this needs to be reviewed. If the emissions caused by the threeͲ wheelers are the reason for the ban, then the limit must be in terms of the emissions causedorthetechnologyusedbyanindividualvehicle. iii. PoliciestoReduceEmissions The same policies explained for twoͲwheeler emission reductions in section 13.1.2 can beappliedreduceemissionseveninthecaseofthreeͲwheelers. I nnov at iv e Tra nsport So lut ions Pv t . Lt d . Final Report P a g e | 91 13 References 1. ArasanT.andKrishnamurthyK.,(2008)“EffectoftrafficvolumeonPCUofvehicles underheterogeneoustrafficconditions”Road&TransportResearch,Volume17 Number1,pp.32Ͳ49 2. 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SUTPͲGTZ,2009,‘TwoͲandͲthreeͲwheelers’,Module4c,SustainableTransport:A sourcebookforPolicyͲmakersindevelopingCities 44. www.cpcb.nic.inaccessedinJanuary,2009 45. Chapter13,whichincludestherecommendedpolicymeasuresforthesafeand efficientoftwoͲandͲthreeͲwheelershasbeenformulatedafterconsultingthe followingexpertsworkinginthisfield: a. Dr.GeetamTiwari,Associateprofessor,DepartmentofCivilEngineering,IIT Delhi,NewDelhi b. Prof.DineshMohan,Professor,CentreforBiomedicalEngineering,IITDelhi, NewDelhi. c. Prof.MadhavG.Badami,Professor,McGillUniversity,Montreal,Canada. d. SunitaNarain,Director,CentreforScienceandEnvironment,NewDelhi e. AnumitaRoychowdhury,CentreforScienceandEnvironment,NewDelhi I nnov at iv e Tra nsport So lut ions Pv t . Lt d .
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