Document 110544

TwoͲandͲThreeͲWheelersinIndia
June2009
FINALREPORT
InnovativeTransportSolutions(iTrans)
Pvt.Ltd.,TBIU,IITDelhi,NewDelhi.
For:
InternationalCouncilforClean
Transportation(ICCT)
&TheInstituteforTransportand
DevelopmentPolicy(ITDP)
Final Report
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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
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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
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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
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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
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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
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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
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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
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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
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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.
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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.
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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.
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2007Ͳ08
7,248,589
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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.
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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.
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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.
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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.
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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.
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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
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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.
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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.
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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.
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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.
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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)
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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
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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.
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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
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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.
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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.
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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).
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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)
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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
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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,
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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.
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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.
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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
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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
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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
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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
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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.
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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.
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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.
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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.
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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
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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.
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Theactualconcernhereistofindoutthecapacity,whichisthemaximumtotalflowina
section.Theflowequationtobeusedis:
qnt
W
N
qj
¦W j 1
Where,qnt=Totalnonhomogeneoustrafficflow.
qnt/W=flowperunitwidth
Themaximumtotalflowisthesumofmaximumflowsofeachmodederivedby
maximizingtheflowequation.Inthiswaymaximumflowperunitwidthisderivedwhich
givesthecapacityperunitwidth.
ThisgivesonemethodoffindingthecapacitiesoflaneswithnonͲstandardlanewidthsin
nonͲhomogeneoustrafficconditions.
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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).
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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
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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.
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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.
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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
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-
Curb
-
Trafficrotary
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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
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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.
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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
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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.
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Figure9ProportionofRoadUsersKilledfromImpactingVehiclesonSampledNational
Highways
(Source:TheRoadAhead,DineshMohan)
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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.
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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.
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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.
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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
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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
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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:
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o Trafficcalmingduringoffpeakhours,whenthespeedsarelikelytobehigherand
crashprobabilityincreases
o Placingroundaboutsatintersections
o Restrictifreeleftturnsatintersections
o Enforceofhelmetlaws
o Pedestrianfriendlyfrontendsofvehicles
o Improvingthecrashworthinessofvehicles
o Makevehiclesmorenoticeabletoreducenighttimecrashes
o Randomalcoholbreathtesting
o Restregulationsfortruckdrivers
o Mandatoryuseofheadlightsduringdaytime.
(Mohanetal,2009)
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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)
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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
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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
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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)
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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.
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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.
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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.
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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.
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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.
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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.
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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
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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.
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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
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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
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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?
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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.
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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.
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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.
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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.
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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)
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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.
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Betterenforcementofnoiselaws
Stricterlawsfornoiselevels,theissuanceofmorepollutioncertificatestoviolatorsand
greaterenforcementoftheselawsarerequired
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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
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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
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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.
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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.
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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)
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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.
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42. TRIPP,IITDelhi&CIRT(2006)““Masterplanforbusrapidtransitsystemintegrated
withbicyclenetworkinpcmc(pimprichinchwad)””Pune.
43. 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 .