HIGH SPEED RAILWAY AND THE FORMATION OF MEGACITIES
Francesca Pagliara Department of Civil, Architectural and Environmental Engineering University of Naples Federico II fpagliar@unina.it
Introduction
REFERENCES
ďƒź Pagliara, F., de Abreu e Silva, J., Sussman, J. and Stein, N. (2011): Megacities and High Speed Rail systems: which comes first? ESD working paper series n. 7, MIT, March.
ďƒź Urena, J. M., Menerault, P. and Garmendia, M. (2009): The highspeed rail challange for big intermediate cities: A national, regional and local perspective, Cities, pp. 266-279.
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Outline
Introduction
Megacities and HSR in US Megacities and HSR in Europe Further research perspectives
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Introduction ACCESSIBILITY: THE BRIDGE BETWEEN THE LAND USE AND TRANSPORTATION SYSTEMS SUPPLY TRANSPORTATION FACILITIES AND SERVICES
TRANSPORTATION SERVICE CHARACTERISTICS ACCESSIBILITY - active - passive
SUPPLY ELEMENTS CAPACITY
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CONGESTION LEVEL AND LOCATION OF ECONOMIC ACTIVITIES
FLOWS ON MODAL NETWORKS
NUMBER AND LOCATION OF HOUSEHOLDS BY TIPOLOGY
10 11
TRAVEL DEMAND BY TRANSPORTATION MODE
SPACE AVAILABILITY BY AREA AND TYPE 7
ACTIVITY SYSTEM
LEVEL AND SPATIAL DISTRIBUTION OF TRAVEL DEMAND DEMAND
TRANSPORTATION SYSTEM
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Introduction
Common Definitions of Accessibility “the opportunity which an individual or type of person at given location possesses to take part in a particular activity or set of activities” Hansen (1959) “the accessibility of a point in a system is a function of its location in space with respect to all other points in the system” and “implies relative nearness either in the sense of a direct linkage or a minimum expenditure of travel cost or time” Hack (1976) and de Lannoy (1978) “the average opportunity which the residents of the area possess to take part in a particular activity or set of activities” Wachs and Kumagai (1972) “the consumer surplus, or net benefit, that people achieve from using the transport and land-use system” Leonardi (1978) “the ease and convenience of access to spatially distributed opportunities with a choice of travel” U.S. Department of Environment (1996)
Introduction
A Synthetic Definition of accessibility The ease in meeting one’s needs in locations distributed Over space for a subject located in a given area It depends on: the zone where the subject is located (reference zone) the spatial distribution of activities in the region the transportation system that links the reference zone to the others
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Introduction
Active and Passive Accessibility The concept of accessibility can be related to the needs of carrying out activities (to go shopping, to go to cinemas, to go working, etc.) by a subject located in a given zone (active or origin accessibility) or to the needs of being reached by potential users (clients,workers, providers, etc.) of an activity located in a certain zone (passive or destination accessibility) (Ben-Akiva and Lerman, 1979; Cascetta, 2009).
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Introduction
Many countries of the world are investing in HSR systems.
HSR offers performance, safety, service, high energy efficiency and environmental friendliness.
HSR has the potential to induce megaregional formation and thereby promote economic development at a large scale.
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Introduction HSR systems are a key application in the development of sustainable transport systems.
Three different functional approaches in Europe: high-speed: passenger-oriented, set on new 300km/h speed lines and non-stop connections between large metropolitan areas (e.g. France). high-capacity: both for passengers and freight, serving also intermediate cities with up to 250 km/h train services, developed partly on renewed existing lines (e.g. Germany). enhanced intercity network: speeding up the Intercity service till 225 km/h, combined with frequent coincidences in all the stations to other destination on the network (e.g. Switzerland and England).
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Introduction
HS and accessibility impacts: Long distance door-to-door links, i.e. train is a potential substitute for an air connection between two cities (Blum et al., 1997), like Paris-Lyon and Tokyo-Osaka.
Shorter point-to-point links, i.e. train system links together many cities and creates a new type of “region” with a high intraregional accessibility and strong economic connections (e.g. Germany).
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Introduction Gottman (1961) defines a megapolis as a vast metropolitan area over 500 miles long stretching from Boston in the north to Washington, D.C. in the south.
Megacities can be defined as large core cities linked by an industrial belt or a continuum of cities (Mory, 1997).
A megacity is usually defined as a metropolitan area with a total population in excess of 10 million people (Kotter, 2004).
Hall (2009) defines a mega city region as a series of cities physically separated but functionally networked clustered around one or more larger central cities and are connected with dense flows of people and information using important transport infrastructures. 11
Introduction
Spatial distribution of the world’s megacities 2015 The number of megacities which have 10 millions or more residents is increasing: 1950: 2, 1975: 4, 2003: 21, 2015: 23. Source: Kotter (2004) 12
Introduction
ď ą Our cities are facing multiple crises, including economic recession, congestion, resource scarcity, social and public health concerns, and the consequences of climate change.
ď ą Large amount of money are about to be spent on repairing and building urban infrastructure.
ď ą The future: smart, green, integrated infrastructure. New models should be designed that result in a better environment, improved public health, a stronger economy, and a safer society.
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Introduction
ďƒź This is consistent with the priorities and challenges for the society of the Horizon 2020 Programme. The objectives are:
- to improve the health and welfare of everybody during their life cycles; - to achieve the transition towards an energy, sustainable and competitive system, considering the increasing lack of resources and the climate change. - to develop a European transportation system efficient under the profile of resources, respecting the environment, which is safe and without interruption for the benefit of the citizens, economy and society.
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Megacities and HSR in US
HSR is a topic of considerable debate and discussion at
present within the US.
At present, no HSR in the USA. One exception: some portions of the northeastern part of the country. Over the past fifty years, federal funding for transportation has disproportionately favored highways and aviation (Todorovich et al., 2011).
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Megacities and HSR in US
Implementing HSR in the US poses considerable political challenges: ď ąCalifornia and the Northeast Corridor (NEC) (covering Boston, New York, Philadelphia, Baltimore, and Washington, D.C.) are the two most promising corridors. ď ąCalifornia and in particular the NEC have high potential for megaregion formation as supported by HSR.
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Megacities and HSR in US
Both corridors have the existing population density, transport network congestion and projected growth to support high-quality rail. The NEC represents 20% of the nation’s total GDP on just 2% of the land area with a population density approximately 12 times the national average (Amtrak, 2010).
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Megacities and HSR in Asia
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Megacities and HSR in Europe
HORIZON 2020
Megacities and HSR in Europe
Megacities and HSR in Europe
Megacities and HSR in Europe
Megacities and HSR in Europe
Megacities and HSR in Europe
The Trans-European corridors passing through Italy
• • • •
Priority Project n. 1: rail section Berlin – Verona – Milano –Bologna – Napoli – Palermo. Priority Project n.5 which, by linking Lisbon to Kiev, goes through the Po Valley; it corresponds to the V TenEuropean Corridor. Pan-European Corridor VIII: intermodal section Varna-Sofia-Bari. Priority Project n.24: rail link between the port of Genova and that of Rotterdam through the Gottardo tunnel.
Megacities and HSR in Europe
Operating and work-in-progress HSR lines
High Speed Railways
Total National Railways Network
1.355 km
24.179 km
Source: RFI
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Megacities and HSR in Europe
Decrease of 40-50% in travel times thanks to the introduction of the HS/HC rail lines Link
Travel times without HS
Travel times with HS
Decrease of travel times %
Torino-Milano
1h-30'
50'
-44%
Milano-Venezia
2h-43‘
1h-25'
-48%
Milano-Bologna
1h-42'
60'
-41%
Milano-Roma
4h-30'
3h
-33%
Torino-Napoli
8h-30’
5h
-41%
Bologna-Firenze
59'
30'
-49%
Roma-Napoli
1h-45'
1h-05'
-38%
Roma-Bari
4h-30’
3h
-33%
Napoli-Bari
3h-40’
2h
-45% Source: TAV (2007)
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Megacities and HSR in Europe
Current Scenario Modal shares in the study area Inter-province trips (%) Car Air Intercity Railways High Speed Railways
37 trains
HSR service
62 trains
18 trains
66.5 4.3 9.2
54 trains
23 trains
65 trains
20.0 65 trains
100,0%
42 trains 8 trains 14 trains
Megacities and HSR in Europe
A growing market‌
train-km/year
seatskm/year
Pax Km/year*
2009 19 624 X 103 12 750 X 106
2010 27 327 X 103 15 029 X 106
Δ%
39.25%
17.87%
45.3 %
*estimates from two surveys carried on in May 2009 and May 2010
Megacities and HSR in Europe
RAIL OPERATORS The national Italian network and operations are all owned by FS (Ferrovie dello Stato) (State Railway) Holdings, a fully government owned company. It has three key operating subsidiaries:
Trenitalia operates all freight and passenger trains, including the high-speed trains; RFI (Rete Ferroviaria Italiana) manages the infrastructure, and TAV (Treno Alta Velocità SpA) is responsible for the planning and construction of the new HS infrastructure.
Megacities and HSR in Europe
HSR operators TRENITALIA
NTV
Italian National Operator
April 2012
#runs
TrainKm
SeatKm Avg. Distance Avg. (mil.) per train TrainCapacity
Trenitalia
111
64.953
40
585
620
NTV
54
36.597
18
678
500
NTV partner
Holdings
Totale MDP Holding
33,5%
IMI Investimenti 20,0% VFE-P SA 20,0% Generali Financial Holdings FCP-FIS 15,0% Nuova Fourb 5,0% MaIS Spa 5,0% Reset 2000 1,5% Total
100,00%
Shareholders of NTV partner Della Valle - Montezemolo - Punzo (equal holding) Intesa SanPaolo SNCF Generali Bombassei Seragnoli Sciarrone
Megacities and HSR in Europe
195 km opened in 2005
18 km HS line completed HS line under construction RFI network 31
Megacities and HSR in Europe Metropolitan area of Roma: n. inh.: 4,145,822 Res. Dens.: 473,19 inh./km2
Metropolitan area of Napoli: n. inh.: 3,582,900 Res. Dens.: 1900,27 inh./km2
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Megacities and HSR in Europe
Total systematic relationship In Italy, Census data comprises information concerning the places of work and study of the residents of each municipality (de Luca and Pagliara, 2005; 2007). n
n
j 1
j 1
Tot_syst_rel_muni Genij Destij i j where: n: is the number of municipalities of the region to which municipality j belongs; Genij are the generated systematic relationships from municipality i to municipality j; Destij are the destinated systematic relationships to municipality i from municipality j.
Megacities and HSR in Europe
Intensity of total systematic relationship n
n
Genij Destij j 1 j 1 Intensity_ Tot_syst_rel_muni 1000 i j Residents j This ratio is higher for the municipality with less demographic weight while a municipality which falls into the influence area of two municipalities is considered strictly linked to the municipality with which the intensity of total systematic relationships is higher.
From the analysis of the intensity of total systematic relationships, it has come out an urban polarised growth, i.e. a non-disperse growth which gives rise to new central places. The polarisation phenomenon creates Second Level Urban Systems (SLUS), i.e. sets of neighoubouring municipalities with a reference pole, all reciprocally integrated into a first level system.
Megacities and HSR in Europe
Intensity of total systematic relationships: city of Rome
ROME
ROME
(n. of relationships¡1000)/Res
ROME
Megacities and HSR in Europe
Intensity of total systematic relationships: city of Naples
NAPLES
NAPLES
(n. of relationships¡1000)/Res
NAPLES
Megacities and HSR in Europe
ď ą Polarisation is the phenomenon to count on in order to reorganise transportation system and recover space for public transport. ď ą If activities are aggreagated around the SLUS poles, there are also concentrations of travel demand both within each SLUS and among the municipalities themselves. ď ą Public transport becomes competitive with respect to the private system on these connections.
Megacities and HSR in Europe To this new travel demand configuration it should correspond a new transportation asset: 
Rail systems (from tram to light rail, from regional to fast rail) to link the poles.

Buses are suitable for satisfying a limited travel demand for minor urban systems and provide the conncetions within each SLUS.

Car should be reserved to all the cases in which the generalised cost is less than the cost of the public transport system with equal performances.
Megacities and HSR in Europe RP survey carried out on the link Rome-Naples in March 2008 Reference universe made up of all users travelling on the link under study with: HS trains Eurostar (ES) trains Intercity (IC) trains Car (on the motorway route)
Segmentation by type of day: weekday (Monday to Friday) Saturday Sunday 39
Megacities and HSR in Europe
Demand on HS trains Weekday
Saturday
Sunday
Demand on HS trains N. Users
%
N. Users
%
N. Users
%
Generated by new trips
568
13%
274
14%
164
9%
Generated by an increase of trip frequency
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10%
165
8%
180
10%
from car
355
8%
250
12%
269
14%
from plane + bus (link to Roma Fiumicino)
28
1%
27
1%
25
1%
from IC and/or ES
3144
69%
1300
65%
1233
66%
TOTAL
4539
100%
2016
100%
1871
100%
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Megacities and HSR in Europe
Reason for choosing HS Main reason for choosing HS
WEEKDAY
SATURDAY
SUNDAY
YEAR
USERS
%
USERS
%
USERS
%
USERS
%
3,303
73
1,223
61
1,143
61
985,515
71
307
7
233
12
113
6
97,765
7
9
0
27
1
13
1
4,257
0
More comfort
213
5
125
6
208
11
72,235
5
Agreement with the users' travel times
696
15
396
20
386
21
221,339
16
11
0
8
0
0
-
3,193
0
Less risky, safer than car
-
-
4
0
8
0
569
-
To try
-
-
-
-
-
-
-
-
4,539
100
2,016
100
1,871
100
1,384,872
100
Less travel time Respect of departure and arrival times More on board services
Get off at Mergellina/Campi Flegrei (ES)
TOTAL
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Megacities and HSR in Europe
Trip purpose before and after HS Trip purpose Work Study Shopping Visiting parents/friends Tourism Other TOTAL
BEFORE HS IC ES 67% 51% 7% 5% 0% 8% 19% 16% 0% 17% 8% 3% 100% 100%
Motivo dello spostamento
IC 40% 10% 5% 26% 10% 9% 100%
AFTER HS ES 56% 7% 5% 21% 6% 5% 100%
PRIMA AV ES IC
HS 72% 5% 3% 12% 5% 4% 100%
ES 42
Megacities and HSR in Europe
O-D matrix between Naples and Rome (trips %)
CAR
NAPLES ROME NAPLES ROME NAPLES ROME DEST
HS
NAPLES ROME NAPLES ROME NAPLES ROME NAPLES ROME
NAPLES
0 68 0 62 0 66 0 66
PROV. OF PROV. OF ROME ROME NAPLES
0 33 0 38 0 26 0 32
86 0 91 0 81 0 85 0
10 0 8 0 10 0 10 0
PROV. OF PROV. OF ROME ROME NAPLES
0 24 0 29 0 27 0 26
96 0 91 0 82 0 92 0
2 0 1 0 6 0 2 0
OTHER
3 14 1 7 9 13 5 11
DEST ORIG NAPLES
Weekday
ROME
Saturday IC
0 53 0 55 0 61 0 57
NAPLES ROME
ORIG
NAPLES
NAPLES ROME
Total
NAPLES ROME
OTHER
2 8 8 9 12 6 5 8
NAPLES ROME
Sunday
DEST ORIG NAPLES
Weekday Saturday
ROME
ES
DEST ORIG
NAPLES ROME
Sunday
NAPLES ROME
Total
NAPLES ROME
NAPLES
PROV. OF NAPLES
ROME
PROV. OF ROME
OTHER
0 62 0 70 0 70 0 68
0 32 0 28 0 25 0 28
88 0 86 0 87 0 87 0
7 0 7 0 4 0 6 0
5 6 8 2 9 5 7 4
NAPLES
PROV. OF NAPLES
ROME
PROV. OF ROME
OTHER
0 85 0 73 0 80 0 78
0 15 0 22 0 20 0 19
92 0 91 0 88 0 90 0
3 0 2 0 3 0 3 0
5 0 7 5 9 0 7 3
Weekday Saturday Sunday Total
Weekday Saturday Sunday Total
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Further research perspectives
A definition of Mega-region in terms of commuting based on a morphological approach is needed. A theoretical model can be proposed: to explain the mechanisms through which metro areas integrate into mega-regions and to understand what is the concrete role of HSR systems in this model. This construct should be tested and synthesized in mathematical terms.
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