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Eco Friendly TransportDr. Prasad Modak, Executive President, Environmental Management Centre LLP, India and Consultant, ADB
Trends in Transportation
▪ Overall demand for transport growing rapidly, predicted to roughly doublebetween 2005 and 2050
▪ Transport activity is getting increasingly motorized
▪ The global vehicle fleet is set to multiply three or four-fold in the next twodecades, with most of this growth set to occur in developing countries
▪ Technological improvements such as fuel-efficient vehicles and alternativepower sources have not been rapid enough to offset the impacts of this growth
Need of Eco Friendly Transport
▪ Above unsustainable trends translate directly into various costs for the
Environment
Society
Economy
Need of Eco Friendly Transport
Energy consumption and greenhouse gas emissions
Congestion (and associated losses in productivity of urban areas)
Resource depletion and land grab;
Need of Eco Friendly Transport
Degradation of human health
Reduction in human security (safety)
Reduction in accessibility and severance
Loss of biodiversity
Sustainable Mobility
▪ Meets basic access needs and safely addressing needs of diverse stakeholders
▪ offers choice of transport mode,
▪ is affordable and operates efficiently
▪ supports a vibrant economy;
▪ minimizes consumption of non-renewable resources
▪ minimizes the use of land
▪ limits emissions, noise and generation of wastes, reuses residues and recycles
http://environment.transportation.org/pdf/sustainability_peer_exchange/AASHTO_SustPeerExh
_BriefingPaper.pdf
Green transportation
▪ Green transport is a category of sustainable transport which uses human power, animal power, public transportation, smart design, and renewable energy.
▪ Promotes public transport and initiatives such as car pooling.
▪ Includes: Walking, Cycling and some other types of human-powered transport
▪ Uses Green vehicles: solar powered vehicles, wind powered vehicles, water powered vehicles, electric powered vehicles
http://ecogeeklm.hubpages.com/hub/greentransportation
Key Element of Eco friendly transport
▪ Avoiding or reducing the number of
journeys taken.
▪ Shifting to more environmentally
efficient forms of transport
▪ Improving vehicle and fuel quality and
technology to reduce adverse
environmental impacts
Making a shift to eco friendly transport requires a holistic strategy – Avoid-Shift-Improve strategy
http://www.unep.org/transport/lowcarbon/newsletter/pdf/GER_10_Transport.pdf
Enabling conditions
▪ Designing appropriate regulations and taking planning measures
▪ Setting the right financial conditions and economic incentives/disincentives
▪ Ensuring technology transfer and access
▪ Strengthening institutional capacities
▪ Involving communities and raising awareness
http://www.unep.org/transport/lowcarbon/newsletter/pdf/GER_10_Transport.pdf
Accommodate Needs
Without Growth in
Mobility Demand
Maximize Efficiency of
Existing Transportation
Infrastructure
Expand Streets and
Highways Infrastructure
Accommodate Mobility
Demand Without
Expanding Infrastructure
Expand Railroad,
Transit, Bicycle &
Pedestrian Infrastructure
Implementation Time
Environmental Impacts
Capital Cost
Institutional Requirement
A two step framework
S
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E
P
1
http://environment.transportation.org/pdf/sustainability_peer
_exchange/AASHTO_SustPeerExh_BriefingPaper.pdf
Sustainable Mobility Categories Examples of Solutions
Accommodate Needs Without
Growth in Mobility Demand
Jobs/housing balance in subareas
Affordable housing in employment centers
Promote telecommute programs
Pricing
Accommodate Mobility Demand
Without Expanding Infrastructure
Ridesharing programs
Increased transit service levels
Bicycle sharing programs
Maximize Efficiency of Existing
Transportation Infrastructure
Incident management and response
Intelligent Transportation Systems
Access Management
Operations and maintenance
Expand Railroad, Transit, Bicycle
and Pedestrian Infrastructure
Bikeways and pathways
High Occupancy Vehicle lanes/Busways/Bus Rapid
Transit
Expand Streets and Highways
Infrastructure
General purpose streets and roadways
Limited access highways/freeways
Highway grade separations
S
T
E
P
1
When infrastructure solutions are selected to meet mobility needs, Step 2 frames
projects in more sustainable ways by aligning projects to five broad objectives:
• Reduce Energy Consumption
• Reduce Consumption of Material Resources
• Reduce Impacts to Environment and Communities
• In both construction as well as operations
S
T
E
P
2
Sustainable Objective Examples of Options
Reduce Energy Consumption Traffic Signal Coordination/Optimization
Low Energy Lighting
Dedicated Transit Lanes
Bike Lanes
Transit Signal Priority
Reduce Consumption of Material Resources Recycled Aggregates
Fewer Luminaire Poles/Catenary Lighting System
Higher Strength Concrete Pavements
Precast or Modular Construction Elements
Reduce Impacts to Environmental Resources Rain Gardens for Storm Water Infiltration
Diverse Plant/Tree Selections
Storm Water Infiltration Basins in Planter Strips
Porous Pavement
Support Vibrant Urban Communities Noise Reducing Pavement Materials
Public Art
Pedestrian Refuges in Medians
Emergency Vehicle Access
Support Sustainability During
Implementation
Reclamation of Demolition Materials
Use of Renewable Fuels for Construction Equipment
Use of Locally Obtained Materials
S
T
E
P
2
Criteria air pollutants
• Change in Criteria Pollutant Emissions compared to Vehicle Travel
• Criteria Pollutant Emissions from Transportation Vehicle and Equipment Manufacturing (car, rail, etc.)
• Criteria Pollutant Emissions from Airport Service Vehicles
• VOC Emissions from Solvent Utilization in Surface Coating for Autos & Light Trucks
• VOC Emissions from Service Stations,
• Mobile Source Contribution to Hazardous Air Pollution Inventories
• Toxic Chemicals Released from Ship- and Boat Building & Repairing Facilities
Greenhouse gases
• Share of CO2 Emissions from Transportation
• Full Fuel Cycle CO2 -equivalent Emissions for Light-duty Motor Vehicles (grams per mile)
Chlorofluorocarbons and stratospheric ozone depletion• Estimated U.S. Emissions of CFC-12 and HFC-134a (all sources not only transportation)
How do we measure the eco-friendliness?
US EPA Indicators
http://www2.dmu.dk/1_viden/2_publikationer/3_arbrapporter/rapporter/ar148.pdf
Habitat and land use
• Land Area Occupied by Roadways
• Disposal/Use of Material Dredged by U S. Army Corps of Engineers
• Wetland Losses and Creation Associated with the Federal Aid Highway Program
• Number of Animal Collisions with Motor Vehicles reported Water quality
• Number of Fuel Spills and Total Volume of Fuel Discharged Annually,
• Fuel Tank Leakage: Corrective Action Measures Reports for the U.S. Hazardous materials
incidents
Noise
• Percent of U.S. Population Exposed to Different Levels of Transportation Noise
• Length of Noise Barriers Constructed (miles) and Cost
• Population Exposed to 65 DNL at 30 Busiest Airports (various years)
• Solid waste
• Number of Motor Vehicles Scrapped Annually
• Disposition of Scrap Tires
• Lead Acid Batteries in Municipal Solid Waste Streams
• Estimated Annual Garbage Generation by U.S. Maritime Sectors
How do we measure
US EPA Indicators
1) Demolishing Road Infrastructure and Improving Public Transport – A case of Seoul
• The Mayor of Seoul and President realized
a vicious cycle of transportation planning
http://www.sutp.org/component/phocadownload/category/74-cs6?...143:cs...
Intervention
▪ They initiated a project that would
restore a river covered by anelevated expressway
Improve the public transportsystem
Intervention
▪ The demolition of the expressway and the reconstruction was completed and opened to the public.
Restoration of river
Intervention
▪ The improved public transport system, included and special service buses that run on exclusive median lanes.
▪ Buses were colour coded:
Blue buses: long routed buses
Green buses: Local service buses that arc feeders to the metro system and the express bus stops;
Red buses. These buses connect the newly planned satellite cities to the city centre;
Yellow buses: These are buses that provide local services in the metropolitan area.
Improved Public Transport
Intervention
▪ The buses were equipped with Global Positioning System (GPS)
▪ The new fare structure has free transfers between the metro and bus and vice versa.
▪ The city government introduced a multipurpose smart card system called 'T-money'.
▪ Frequent users of the transport system have now access to a monthly ticket, which offers discounts to them.
Improved Public Transport
Results
▪ There was constant monitoring of the outcomes of the project.
▪ Studies conducted show
that the restoration of the river has reduced the surrounding temperature by 3.6°C, which was earlier caused by the heat island effect.
In terms of traffic, there was a 2.3% reduction in the vehicles entering down-town Seoul while there was a 1.4% increase in the bus users and 4.3% increase in the subway.
Learnings from Seoul
▪ Firstly, transform cities to be people friendly.
▪ The second factor that can be learnt is that a bus system is a crucial means of transport for a city.
▪ Thirdly, a strong political will is required.
2) Electrical Vehicle - Jeepney
▪ An Electric Jeepney, the first public transport system of its kind is introduced in Philippines
▪ It is a revolution in public transportation vehicles
▪ It is powered with renewable energy
http://ens-newswire.com/2012/02/29/philippines-starts-first-commercial-electric-jeepney-service/
Intervention
▪ It uses energy from biodegradable waste from the city's wet markets, food establishments, and households to power Jeepney
▪ The fleet of electric Jeepneys will grow from a pilot set of 6 to a 50‐strong fleet.
▪ The vehicles runs on batteries charged overnight by a power plant fuelled by biogas generated from the organic waste from the city's markets and households.
Results
▪ For cities like Makati, the environmental, economic, health and social benefits of this project are
cleaner air,
better waste management,
a healthier population and most importantly a
significant contribution to curbing dangerous climate change
▪ The electric Jeepneys will also significantly increase incomes of the vehicles drivers by reducing their expenses on fuel
3) Green transportation - Vancouver
Goal of Vancouver: Make walking, cycling, and public transit preferred transportation options
Targets
▪ Make the majority (over 50%) of trips by foot, bicycle, and public transit
▪ Reduce the average distance driven per resident by 20% from 2007 levels
http://vancouver.ca/green-vancouver/green-transportation.aspx
Indicators
Indicator Baseline 2012 % change 2020 target
Per cent of trips made by foot,
bicycle, and transit
40% of trips
(2008)
44% of trips +4% * 50% of trips
Total vehicle km driven
per person
Not available New survey
in late 2014*
20% below
2007 levels
Intervention
▪ Buses, ferries, trains, and planes:
The City is served by a rich network of travel options
The City has efficient public and private transportation
▪ Public bike share system
In 2015, the City plans to launch a public bike share (PBS) system – a network of shared-use bicycles available for short-term use for a fee
Intervention
▪ Separated bicycle lanes
bicycle lanes divided from vehicle traffic lane by concrete medians and planters
Separation increases feelings of safety and comfort, which makes cycling an attractive commuting option
When pedestrians know that cyclists won't be using the sidewalks, pedestrians experience greater feelings of comfort when walking
Intervention
▪ VIVA Vancouver: Creating vibrant pedestrian spaces
In collaboration with community groups, local businesses, and regional partners, VIVA facilitates short-term street closures throughout the year, creating public spaces for walking, lounging, and lunching
4) Milan's Ecopass and Area C schemes
Context:
▪ With a density of 7200 habitants/ sq.km, the city of Milan is one of the top ten dense cities in the European region.
▪ Although Milan is served by a considerable public transport network, car ownership is 0.6 cars per inhabitant which ranks Milan amongst the highest cities around the world.
▪ This lead to high levels of pollution in the region.
Intervention:
▪ In 2008, Milan introduced a cordon pricing scheme in the city centre, by which vehicles entering the area had to pay a pollution charge, proportional to their emission class.
▪ This scheme called “Ecopass” aimed at reducing PM10 concentrations, as stipulated by European legislation.
▪ The scheme was under trial for one-year (2008) and was later extended for two more years.
▪ The area selected was of 8 sq.km, covering 4.5% of the city’s area.
http://www.iclei.org/fileadmin/PUBLICATIONS/Case_Studies/ICLEI_cs_157_-_Milan_July_2013.pdf
Milan's Ecopass and Area C schemes
Intervention :
▪ The 43 toll entrance gates were controlled by an electronic system of cameras, reading the license plates of the vehicles accessing the area.
http://www.iclei.org/fileadmin/PUBLICATIONS/Case_Studies/ICLEI_cs_157_-_Milan_July_2013.pdf
Class Main vehicle category
PM10 (mg/Km)
Charge
(Euro)
Class 1 Low emission vehicles 0 0
Class 2 Petrol Euro 3 and euro 4
Diesel Euro 4 with particulate filter
≤ 10 mg/km 0
Class 3 Petrol Euro 2 and Euro 1 ≤ 10 mg/km 2
Class 4 Petrol Euro 0
Diesel cars Euro 4 without particulate
filter, Euro 3, Euro 2 and Euro 1
Diesel commercial vehicles Euro 4
without particulate filter and Euro 3
≤ 100 mg/km 5
Class 5 Diesel cars Euro 0 Diesel commercial
vehicles Euro 2, Euro 1 and Euro 0
> 100 mg/km 10
▪ This scheme was later replaced by the Area C scheme with uniform charge of 5 euros for all vehicles entering the restricted areas.
Date Important events in Milan's road pricing policies
Jan. 2008 Implementation of the pollution charge Ecopass
2008 First year trial of Ecopass
2009 Ecopass trial period year extension
2010 Ecopass pollution charge
June 2011 Ecopass Referendum
16 Jan. 2012 Implementation of the congestion charge Area C
25 July 2012 Area C trial period suspended due to a ruling by the
Council State
17 Sept. 2012 Area C trial reintroduction
April 2013 Area C trial end, enters into force definitively
Milan's Ecopass and Area C schemes
Results:
Results of the Ecopass and Area C schemes are found in traffic reduction, public transport speed increase, air quality improvement and revenue collection.
▪ Road accidents within the tolled area were reduced by 21,3% in the same period;
▪ The average speed of public transport increased by 11,8%.
▪ The annual charge payments were 12.4 million Euro in 2008, 9.6 million Euro in 2009 and 8.9 million Euro in 2010 as against the operational costs of 6.5 million Euro
PM10
reduction
Traffic
reduction
http://www.iclei.org/fileadmin/PUBLICATIONS/Case_Studies/ICLEI_cs_157_-_Milan_July_2013.pdf
5) Non-motorization of Bogota’s Transportation
▪ In the late 1990's new city regulations came into force in Bogotá and resulted in the development and provision of bicycle paths.
▪ In 1998 the Urban Development Institute realized the need to formulate a Bike Path Master Plan.
▪ The network was designed by dividing the city into multiple grids covering the entire city area.
▪ Bike paths were designed such that they provided complementary services like parking for bicycles, street furniture and landscaping
http://www.iclei.org/fileadmin/PUBLICATIONS/Case_Studies/ICLEI_cs_165_Bogota_2013.pdf
Non-motorization of Bogota’s Transportation
▪ There was an increase of bicycle use from 0.58% in 1996 to 4-5% in 2006.
▪ In a city where cycling was previously not an option people considered this a noteworthy achievement.
▪ A growing citizen awareness and involvement in urban transport policy, something which was not previously evident before this decade.
▪ A greater possibility for citizens to take the bicycle as a main mode of transport.
http://www.iclei.org/fileadmin/PUBLICATIONS/Case_Studies/ICLEI_cs_165_Bogota_2013.pdf
▪ Political will and commitment is fundamental to promote non-motorized transport.
▪ Infrastructure is a crucial component
▪ Regulations and policies related to bicycle use
▪ Maintenance of infrastructure is fundamental
Non-motorization of Bogota’s Transportation
http://www.iclei.org/fileadmin/PUBLICATIONS/Case_Studies/ICLEI_cs_165_Bogota_2013.pdf
Learnings
6) Water Taxis ▪ Perfect for areas and communes that stand on sea, river or lake,
▪ Electric ferries and water taxis can be used to transport large numbers of passengers while reducing emissions and energy requirements to a minimum.
▪ The Community of Bordeaux (France) has signed up for a water taxi service, the BatCub, which the EDF Group runs and for which it maintains the batteries.
▪ Each ferry can safely carry 45 passengers, 6 bikes and 2 wheelchair users.
http://about-us.edf.com/strategy-and-sustainable-development/our-positions/electric-mobility/projects/electric-water-taxis-282894.html
Finally, eco-friendly transportation is not technology alone, nor just
imposition of regulations or planning
Its changing the attitude
Following sustainable Lifestyles
And getting a commitment – political, individual and collective (of
communities and corporations)
Its about Partnerships to put Innovations in Practice