Case study ProRail: understanding the drivers of Railway - - PowerPoint PPT Presentation

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Case study ProRail: understanding the drivers of Railway - - PowerPoint PPT Presentation

OECD, International Transport Forum (ITF) Roundtable: Efficiency in Railway Operations and Infrastructure Management Paris, 18-19 November 2014 Case study ProRail: understanding the drivers of Railway (in)efficiency Jan Swier, ProRail Who is Jan


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OECD, International Transport Forum (ITF) Roundtable: Efficiency in Railway Operations and Infrastructure Management Paris, 18-19 November 2014

Case study ProRail: understanding the drivers of Railway (in)efficiency

Jan Swier, ProRail

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Who is Jan Swier?

  • Jan Swier, 63 years
  • Married and five children
  • Civil Engineer
  • Expert in asset management
  • Career:
  • bridge engineering
  • maintenance contractor
  • staff manager
  • advisor

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Theme of the presentation

  • Separation Transport-Track
  • Costs & Earnings Transport
  • Cost drivers Infra
  • (In)efficiency drivers

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Railways in the Netherlands

Line; 3063 km Track: 7033 km Stations: 404 Punctuality: 94% (<5’) Passengers: 1,1 mio/day Freight: (net ton): 0,1 mio/day Value rail infra: € 32.000 mio M&R costs infra: € 1.200 mio/yr Earnings Transport: € 2.500 mio/yr

Together with Switzerland we have the most densely used network in Europe

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5 Development of rail transport costs in the Netherlands (1938-2013)

Users Charge TOC’s Rail Infra-costs TOC-earnings PSO-subsidy TOC’s

Nominal costs Price level 2013 Nominal costs

Separation

NS declared unprofitable

  • Rail Transport Costs & Revenues increased fast because
  • f changing conditions and circumstances

Mio Euro’s/year 5

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  • Competition Authority
  • Transport Safety Board

Government

ProRail

Passengers & shippers

The institutional triangle was born as a consequence

  • f increasing government involvement
  • Network Statement
  • Access Agreement
  • Access Charges (€270)

Vervoerders Vervoerders Vervoerders Vervoerders

Train Operating Companies

Euro’s (€) in millions

Contractors, Engineering Agencies, etc. Contractors, Engineering Agencies, etc.

Institutional triangle

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Full vertical separation created a clear division of roles, money flows and responsibilities

One infra Manager Multiple TOC’s (>15) Means of production Product Subsidy Revenues Costs Profit Infra Performance & LCC Transport profitability (Very) Long Term focus Short/Medium Term focus

“Who pays decides” A subsidy is “Commercial Poison”

.

Euro’s (€) in millions

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Quality & Utilization improved after separation

Increase utilization

Separation

1946 2013 1995

Less technical infra failures

Separation ProRail BV

2013 1994 2005

Oursourcing Maintenance

1998

Increase punctuality (<3’)

Separation 2005; ProRai BV

2014 1995

Full vertical separation created positive optimization circumstances:

  • three views)* and contributions
  • n one common goal: improving

customer satisfaction,

  • an open debate about the best

solution

  • “Who pays decides”
  • TOC’s:

transport costs, revenues and profit

  • Asset Manager: infra life cycle costs & performance
  • Government: national transport policy & public interest

)* 8

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Separation had a “purifying” effect on rail asset financing and reporting; full transparency to the taxpayer

Nominal costs

Process Maintenance Project Maintenance Stations (Only Infra)

Financial costs

Depreciation costs Stewardship costs Organization costs

Only AM AM, Traffic Control & Capacity Mngt.

……based on renewal value Depreciation ….based on construction value

ProRail BV

Holding Full vertical separation

Separation Trains-Track ProRail

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10 Infra

3.000.000 2.000.000 1.000.000

TU/km line (Passenger km and Net ton km)

Passengers Freight

2.500.000 1.500.000 500.000

Railway Business in Europe is complex because of multiple users and costs are higher as revenues and

Railway Business Model:

  • Realization of 95 lines
  • TOC-costs are modelled, based
  • n known quantities and yearly

costs

  • Total infra-costs = Infra + Users
  • Charge. Both are based on

realization.

Costs & Income TOC’s & IM are in balance

Profit TOC’s

Euro/km line/year

Government subsidy

Average modelled situation NL Costs & Earnings TOC’s in balance

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19 November 2014 11

Social benefits are a part of the rail transport business

€1.650.000 €1.250.000

Social benefits:

  • travel time savings by reducing

traffic jams;

  • less accidents;
  • (possible) less air pollution;
  • (possible) less landscape damage;
  • (possible) lower production costs;
  • (possible) economic stimulus.

€1.150.000

Line average NL

Average line use

Rail Transport in the Netherlands is abundantly profitable because

  • f high utilization/earnings and

considerable social benefits

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Railways

Efficient = effective = business like = competent = economical

Business (in)efficiency can be measured as the ratio Earnings(= Performance) /Costs

(€2400 + €300) + €1200 (€3400 + €300) + €52

= 1,04 = 0,72 = 0,32

Public Service Value Efficiency Railways

Train Operators Government Efficiency Railways

Earnings + PSO Subsidy Costs)* + Access Charge Subsidy + Access Charge Costs)** + Back log)***

)*** Back log = % main track with speed restriction * M&R-costs Infra PSO = Public Service Obligation )* Only Train Operation not real estate and stations

Train Operation Rail Infrastructure

)** Traffic Control, M&R & Capacity Mngt

€2400 + €200 €2100 + €300 €1000 + €300 €1300 + €50

= 1,08 = 0,98

Efficiency Rail Infrastructure Efficiency Train Operation

Euro’s (€) in millions Euro’s (€) in millions

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>200 trains/day 2 tracks+ 70-1000 ton/train 40-600 m/train 2-4 trains/day 1 track >5000 ton/train >2000 m/train

Drivers behind (in)efficiency are understood by analyzing differences & analogous between companies

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19 November 2014 14

TOC-costs per line differ substantial because of differences in train length, -type and -intensity

Freight

Depending need Long, simple High load per train Long Train driver 100 km/hr Intensity Trains Demand Distance Personnel Speed

Regional

1 or 2 trains/hr/direction Short, simple Low / Medium Short / Medium Train driver 100 km/hr Intensity Trains Demand Distance Personnel Speed 100-200 seats/train

Intercity

4 trains/hr/direction Long, comfortable Medium / High Medium / Long Train driver + conductor(s) 140 km/hr 400-1100 seats/train

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19 November 2014 15

Infra costs per line differ substantial because of differences in utilization and complexity

Regional line

  • Single track
  • Simple layout
  • Simple signaling
  • No catenary
  • 100 km/hr
  • 17-20 ton axle load

+/- € 200.000 /km line

Intercity main line

  • Double (or more) track
  • More complex layout
  • Double/single track signaling
  • Catenary
  • 140-200 km/hr
  • 22,5 ton axle load

+/- € 500.000 /km line

Yards

  • Complex layout: many switches
  • Complex signaling
  • Complex catenary
  • Complex traffic control
  • Complex surrounding
  • Low(er) speed

> € 1.000.000 /km line

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Utilization

Modelling maintenance cost drivers revealed the impact of the conditions

Average situation NL (2013)

Complexity

Maintenance cost model:

  • Prediction of M-costs for

projects, tenders,….

  • Applicable for networks,

lines, contract area’s

  • High reliability (R²=0,9)
  • Also applicable to

understand cost differences between countries/continents

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Differen rence in conditi itions: s:

  • No catenar

ary

  • < switche

itches (-60%) %)

  • < signal

als s (-80%) %)

  • > day work (90%)

%)

  • > effec

ective ive workin ing g time me

  • > tonkm,

, < train inkm km

LCC comparison rail infrastructure; the Netherlands - US (INDICATIVE)

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11 7 19 9 10 11 12

100

4 5 9 17 5 4 4

20 40 60 80 100 120

LCC rail infrastructure NL More (complex) marshalling yards More diesel refuel installations No catenary 60% less switches 80% less signals Less complex traffic control Less (complex) level crossings Lower material costs More daywork (90% versus 65%) More effective working hrs(7/5) Higher utilization in the US Purchasing Power (estimated) Scale advantages (estimated) Cargo related specs (estimated) Operational excellence (estimated) LCC rail infrastructure US

Differences LCC index

LCC Cost Index NL USA

Quality Usage & Complexity

The big infra-cost gap between US-Netherlands are because of difference in usage & complexity

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Circumstances

18 ‘

Conditions Activities

Costs

Performance Risks “The mechanism behind Asset Management”

  • Risk Mngt.
  • LCC Mngt.
  • Contract Mngt.
  • Quality Mngt.
  • Information Mngt.
  • Knowledge Mngt
  • Capacity
  • Functionality
  • Quality (RAMSHE)*)
  • Image
  • Maintenance
  • Renewal
  • Inspections
  • Measurements
  • Stewardship
  • Amount of assets
  • Utilization
  • Technical condition
  • Effective working Time
  • Day/Night/Weekend work
  • Worksite conditions
  • Legislation
  • Social Agreements
  • History / Culture
  • Society / Economy
  • Political focus
  • Stakeholder focus
  • Way of Separation

Maximizing asset efficiency depends of the skills and quality of the organization to manage all risks

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Performance improved after separation because of focus

  • n clients, continuous improvement and co-operation

Example: Performance Analysis Bureau:

(at ProRail Traffic Control):

  • independent knowledge center for the

whole branch

  • provides all kind of train process info
  • feedback loop plan-realization train process
  • practical train process knowledge
  • development and improvement info systems

Kind of improvements in the branch:

  • 1. minute/seconds in timetable per train series
  • 2. track use per station
  • 3. optimized maintenance schedules
  • 4. decrease of red signal approaches
  • 5. de-complex infrastructure, less switches/

signals, less failures, increased speed

  • 6. maintenance change: less train failures
  • 7. Improved stop-&-go linking per station
  • 8. Improve start-punctuality per station
  • 9. Improved depart procedure trains
  • 10. ………………….

TC = traffic Control

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60 180 trains/h 14 19 platforms 200 28 switches 3 2 min headway

The cost-performance ratio improves when the whole system is de-complicated

Utrecht (today)

Tokyo

Performance)* increases and costs go down when the system is de-complicated 60 16 90 2

Utrecht (2016)

)* Capacity, Functionality and RAMSHE-quality

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Conclusions

1. Railways in Europe can’t exist without government financing. 2. Full vertical separation created beneficial circumstances as a result

  • f well separated roles, money flows and responsibilities

3. Full separation created positive optimization circumstances:

  • TOC’s:

transport costs, revenues and profit

  • Asset Manager:

infra life cycle costs & performance)*

  • Government:

national transport policy & public interest

4. Role fulfillment of the government ánd co-operation are decisive 5. Earning/cost-ratios are high level indicators for efficiency 6. Usage and complexity are the main rail infrastructure cost drivers 7. Risk management is key to optimize infra costs & performance)* 8. Skills, conditions, circumstances and price determine (in)efficiency.

)* Infra performance = Capacity, Functionality and RAMSHE-quality

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Our ambition: the best infra manager in Europe and leading in the World