Rail access charges and internal competition in High Speed Trains Óscar Álvarez San-Jaime Pedro Cantos Sánchez Rafael Moner-Colonques José J. Sempere-Monerris University of Valencia 2nd MEETING ON TRANSPORT ECONOMICS AND INFRASTRUCTURE IEB Barcelona January 21 2016 1
Motivation In July 2012 the Spanish government announced a plan with different
measures to liberalize the rail industry: To separate the main operator (RENFE) in four differentiated companies:
passenger, freight, wear and tear and rolling-stock. ADIF remains as the public entity that owns and manages the infrastructure. To favor the entry of private companies: In freight sector (already possible but with poor results). In long-distance services (HSR lines and other commercial corridors), although
this plan has been stalled. Subsidised services (local and regional services) will be redefined and
maintained (perhaps through franchising systems). Also this measure has been dismissed.
2
Motivation Apart from this plan, there is an important debate on the level of rail
track access charges: ADIF has historically complained about the low charges, and got significant
increases in 2012 and 2013. Even so, the losses for ADIF in 2014 were around €230 million. RENFE has objected that this increase is inefficient, because the new charges are above the marginal infrastructure costs. Potential entrants argue that high charges will make entry difficult to new operators. Public administrations are forcing to introduce “break-even” constraints in most of the public entities.
3
4
Overview of the presentation 1. Introduction: Related literature
Objectives and contribution.
2. The theoretical model 3. Calibration of the model Description of the calibration process Results
4. Conclusions and policy recommendations
5
Introduction Competition “for the market” (by franchising systems) has been the
traditional way to introduce competition in the passenger rail industry. Germany, Sweden and the Netherlands introduced franchising systems for
many regional and subsidised services. UK extended the franchising system to all the passenger network. Competition “in the market” has been occasionally promoted : Some corridors in UK (London-Birmingham, Peterborough and
Cambridge, or London-Hull). In Sweden (Stockholm–Gothenburg–Malmö) and Germany (Hamburg– Cologne), but entrants supply low price/low quality services. In other European corridors rail entrants offer similar high quality services to the incumbent (Prague-Ostrava, Vienna-Salzburg or Milan-Naples). In the latter, Trenitalia competes with NTV: number of services , prices and global rail traffic (around 15%). 6
Related Literature Preston et al (JTEP, 1999) use the PRAISE software designed to predict
the effect of competition between operators, by simulating the decisions on a sample of individuals: They consider different competition scenarios between the two operators. Only scenarios of “cream skimming” and “fare reductions” are generally feasible
with competition.
A paper by Johnson and Nash (JRTP&M, 2012) uses an improved
version of the PRAISE software to model open access competition on a HSR international route: ”On-track” competition has benefits to users in terms of fares and services. There is an important loss of profitability for the incumbent. Only entry is feasible if it leads to a notable cost reduction and additional traffic
is generated. Then, wouldn’t it be better to franchise? 7
Related Literature Adler et al (TR-B, 2010) show that strategic interaction between operators is key
to assess transport investments. Ivaldi and Vibes (JTEP, 2008) analyze inter- and intra-modal competition in the transport industry, using a game theory approach. Consumers choose a transport mode and an operator to travel with; operators
strategically decide on prices for the services. They conclude that the entry of low cost operators can notably increase the levels of Consumer Surplus (CS). Cantos et al (ET, 2015) define a model where there is competition between air
travel and HSR in frequencies and prices. The model is simulated for the routes Madrid-Sevilla and Madrid-Valencia: Entry provokes increases in CS, but an important loss in rail profitability. Entry is found to be welfare enhancing only when it generates large increases in
traffic (around 25-30%).
8
Introduction: objectives and contribution Our paper develops a theoretical model where we introduce as novel
features:
Rail operators that compete in prices and number of services, but now access fees
for the use of the rail infrastructure are endogenous. The model is solved for different rail structures: vertical integration versus separation between rail infrastructure and operations.
The main goal of the paper is: To study the interplay between the access fee and competition variables chosen by operators To analyze the effects of entry of a new train operator in an HSR corridor both on competition and access fees. And specially, to evaluate the impacts on industry profitability, consumer surplus and social welfare under different market structures and for different Spanish corridors. 9
The theoretical model We consider the standard deterministic quadratic and separable utility
function for a trip: 1 U y rQr acQc (brQr2 bcQc2 2dQrQc ) 2
where we assume there is one train operator company (TOC) and one
outside option (private car). And r = ar + vr nr, where vr stands for the per unit utility of one more service, and nr is the number of rail services. Maximization of U subject to the corresponding budget constraint yields
a system of inverse demand functions. By inverting the system, the direct demand equations (for car and train) are:
10
Qr
ar bc ac d bc vr nr bc d p pc r 2 2 2 2 br bc d br bc d br bc d br bc d
Qc
acbr ar d dvr nr br d p pr c br bc d 2 br bc d 2 br bc d 2 br bc d 2
The theoretical model In the case of entry a new rail operator the three demand functions (for
car and the two TOCs) is obtained from a new utility function as: 1 U y r1Qr1 r 2Qr 2 acQc (brQr21 brQr22 bcQc2 ) d (Qr1Qc Qr 2Qc Qr1Qr 2 ) 2
We solve a three-stage game: In the first-stage the infrastructure operator selects the access per service fee, fr , to maximize its profit: i ( f r tr )nr Fi Then, the profit maximizing train operator chooses: Number of services in the second stage, And prices are set in the third stage.
The train operator cost structure is as follows: TCr cr n 2r f r nr Fr 11
The theoretical model We solve the model for different scenarios before and after the entry of
a new rail operator. Before entry: The first one considers a vertically integrated monopoly (VIM). The second one presents the case of a vertically separated monopoly (VSM).
And the scenarios after entry: A vertically integrated dupoly (VID): there is VI and entry of a new rail
operator A vertically separated duopoly (VSD): there is VS and entry of a new rail operator A last scenario (VRD) is defined assuming that access charge is equal to the rail infrastructure cost, tr.
12
Calibration of the model Values for elasticities are taken from González-Savignat (2008) and Cantos et al
(2009):
Own –price elast.
Cross-price elast.
Own frequency elast.
Train
-0.75
0.12
0.15
Car
-0.30
0.12
-
Data for current traffic, price and frequency for each mode, per day and
direction in 2011 in Madrid-Valencia and Madrid-Sevilla corridor are: MAD-BCN Rail traffic point to point per year Rest of internal traffic per year Average rail price per passenger Train services per day and direction Total car passengers per year Car price trip
13
2,428,118 2,738,092 €105 27 4,728,500 €80
MAD-VLC 1,925,000 448,000 €75 15 3,062,000 €57
MAD-SVL 2,140,942 656,298 €88 18 3,100,000 €65
Calibration of the model With these data a system of four equations is defined:
bc pr 0.75; br bc d 2 qr
d pc 0.120; br bc d 2 qr
bc vr nr br pc 0.150; 0 . 30 ; br bc d 2 qr br bc d 2 qc
And values for br , bc , d and vr can be recovered: MAD-BCN MAD-VLC MAD-SVL
br 0.021 0.033 0.031
bc 0.042 0.048 0.056
vr 3.472 4.750 4.514
d 0.009 0.010 0.011
Then, knowing the current traffic levels and the number of rail services,
the values of ar ,aa and cr are finally calibrated: ar
14
ac
cr
MAD-BCN
207.68
406.48
362.65
MAD-VLC
126.78
285.14
339.35
MAD-SVL
145.58
329.74
285.14
Calibration of the model And the cost for the rail infrastructure owner: Ci tr nr Fi To separate variable infrastructure from fixed costs we use different
information directly from ADIF and literature (Wheat et al, 2009). From the current figures, we can approximate tr = 1,400 and and and Fi per day and direction will be as shown below. Then in the cost function for the rail operators: TCrj (cr nrj f r ) nrj Fr Again we need a calibration for Fr. Using data provided from RENFE and a
breakdown of the rail operating costs provided by Crozet and Chassagne (2013), fixed costs per day, direction and corridor are: MAD-BCN Fixed inf. costs (Fi) Fixed oper. costs (Fr)
15
MAD-VLC
MAD-SVL
€66,143
€39,244
€47,675
€132,208
€38,177
€54,845
MAD-BCN Train price inc.
Results
VIM 115
VSM 92
VID 89
VSD 66
VRD 80
VSD pessim 56
VRD pessim 67
1
0.80
0.77
0.57
0.70
0.49
0.58
53
66
80
56
67
# trains inc.
23.38
10.30
20.58
8.48
17
# trains entr.
4.23
10.30
20.58
8.48
17
Train price entr.
# total trains
27
13.5
27.61
20.60
41.16
17
34
1
0.50
1.02
0.76
1.52
0.63
1.26
# pass. inc.
5492
4044
4883
3408
4101
# pass. Entr
3251
4044
4883
3408
4101
Total rail pass. Road traffic Access fee Incumb. Profits
6044
4812
8743
8088
9766
6816
8202
1
0.80
1.45
1.34
1.62
1.13
1.36
6477
6742
5896
6037
5675
6311
6013
1
1.04
0.91
0.93
0.88
0.97
0.93
1400
6916
7076
6055
1400
5238
1400
1
4.94
5.05
4.33
1.00
3.74
1.00
260658
148961
-4280
33637
74178
-13464
13711
-6847
33637
74178
-13464
13711
Entrant’s profits ADIF’s profits Consum Surplus Social Welfare
16
-66143
8323
90571
29750
-66143
-897
-66143
1636935
1509729
1805475
1718285
1914955
1594068
1730476
1
0.92
1.10
1.05
1.17
0.97
1.06
1831450
1667013
1884920
1815309
1997168
1566243
1691755
1
0.91
1.03
0.99
1.09
0.86
0.92
MAD-BCN
VIM
VIS
Entrant’s profits
VID VSD Fr is 25% lower for the entrant 107230 26205
VRD
VSD pessim
VRD pessim
66689
19588
46763
Total oper. prof.
260658
148961
21925
100326
181408
6124
60474
ADIF’s profits
-66143
8323
90571
29750
-66143
-897
-66143
Total rail profits
194515
157284
112497
130076
115265
5227
-5669
Consum. Surplus
1636935
1509729
1805475
1718285
1914955
1594068
1730476
1
0.92
1.10
1.05
1.17
0.97
1.06
1831450
1667013
1917972
1848361
2030220
1599295
1724807
1
0.91
1.05
1.01
1.11
0.87
0.94
99741
52640
79815
Social Welfare
Fr is 50% lower for the entrant 140282 59257
Entrant’s profits Total oper. Prof.
260658
148961
54977
133378
214460
39176
93526
ADIF’s profits
-66143
8323
90571
29750
-66143
-897
-66143
Total rail profits
194515
157284
145549
163128
148317
38279
27383
Consum. Surplus
1636935
1509729
1805475
1718285
1914955
1594068
1730476
1
0.92
1.10
1.05
1.17
0.97
1.06
1831450
1667013
1951024
1881413
2063272
1632347
1757859
1
0.91
1.07
1.03
1.13
0.89
0.96
Social Welfare
17
MAD-VLC Train price inc.
VIM 75
VSM 57
VID 63
VSD 45
VRD 57
VSD pessim 38
VRD pessim 47
1
0.76
0.84
0.60
0.76
0.51
0.63
38
45
57
38
47
# trains inc.
12.92
5.78
11.56
4.53
9.05
# trains entr.
3.49
5.78
11.56
4.53
9.05
Train price entr.
# total trains
15
7.5
16.41
11.56
23.12
9.06
18.10
1
0.50
1.09
0.77
1.54
0.60
1.21
# pass. inc.
2178
1574
1981
1298
1617
# pass. entr.
1314
1574
1981
1298
1617
Total rail passengers Road traffic Access fee Incumb. profits
2438
1859
3492
3148
3962
2596
3234
1
0.76
1.43
1.29
1.63
1.06
1.33
4194
4316
4025
4045
3874
4161
4027
1
1.03
0.96
0.96
0.92
0.99
0.96
1400
3740
3769
3424
1400
2985
1400
1
2.67
2.69
2.45
1.00
2.13
1.00
47320
20996
-6568
1694
12739
-10372
-3781
-5579
1694
12739
-10372
-3781
Entrant’s profits ADIF’s profits
-39244
-21694
-369
-15847
-39244
-24884
-39244
Consumer Surplus
628439
590168
664809
633190
689340
602412
638474
1
0.94
1.06
1.01
1.10
0.96
1.02
636515
589470
652294
620732
675574
556784
591668
1
0.93
1.02
0.98
1.06
0.87
0.93
Social Welfare
18
MAD-SVL Train price inc.
VIM 88
VSM 68
VID 72
VSD 52
VRD 65
VSD pessim 43
VRD pessim 54
1
0.77
0.82
0.59
0.74
0.49
0.61
41
52
65
43
54
# trains inc.
15.84
6.87
13.74
5.52
11.04
# trains entr
3.61
6.87
13.74
5.52
11.04
Train price entr.
# total trains
18
9
19.45
13.74
27.48
11.04
22.08
1
0.50
1.08
0.76
1.53
0.61
1.23
# pass. inc.
2754
1947
2426
1627
2013
# pass. entr
1556
1947
2426
1627
2013
Total rail passeng.
Road traffic Access fee Incumb. profits
3010
2315
4310
3894
4852
3254
4026
1
0.77
1.43
1.29
1.61
1.08
1.34
4110
4243
3881
3940
3756
4063
3915
1
1.03
0.94
0.96
0.91
0.99
0.95
1400
4358
4411
3934
1400
3437
1400
1
3.11
3.15
2.81
1.00
2.46
1.00
75164
35238
-11663
2981
18697
-13703
-3784
-11916
2981
18697
-13703
-3783
Entrant’s profits ADIF’s profits
-47675
-21053
10889
-12858
-47675
-25187
-47675
Consumer Surplus
752938
698850
807880
764454
844190
721079
774435
1
0.93
1.07
1.02
1.12
0.96
1.03
780426
713034
795190
757558
833909
668486
719193
1
0.91
1.02
0.97
1.07
0.86
0.92
Social Welfare
19
Conclusions and policy recomendations Separation without entry is not a good policy, because it leads to a
reduction in prices, frequencies and lower industry profitability and consumer surplus. Entry of a new TOC has the following effects, On the profitability of the industry: Profits for the entrant are very sensible to the access fee. BCN-MAD is the most
profitable corridor for the entrant. Incumbent losses profits with the entry On CS and welfare: Entry is generally benefitial for the consumers. Final effect on welfare depends on the scenario considered and the increase in
the rail demand provoked by entry. Scenarios with marginal infrastructure cost pricing maximize welfare, but losses increase for the infrastructure owner ADIF. 20
Thank you very much for your attention!!!
21