ECML Case

The ECML Case for HPR — How Incremental Investment Beat the Big-Bang Model

Coalition for Better Rail · Research Brief · April 2026

The ECML Case for HPRHow incremental investment beat the big-bang model — and what 25 years of data tells us about ALTO

Britain’s East Coast Main Line carried 26 million passengers and captured 57% of the London–Edinburgh market — without a single mile of new high-speed track. HS2 spent £37.9 billion in the same period and laid no track at all. The lesson for Canada is structural, not anecdotal.

200 km/h passenger rail captured majority modal share at 4-hour journey times
Price competition delivered the modal shift, not speed
Build incrementally. Make every dollar revenue-generating from day one.
Coalition for Better Rail·beyondalto.ca·Independent, non-partisan citizen research
Executive Summary|The headline finding

200 km/h is enough — and the data is twenty-five years deep

Two corridors. The same national problem. Two diametrically opposed strategies. One delivered modal shift, growing revenue, and 26 million passengers. The other spent £37.9 billion and laid no track.

ECML 2024/25 ridership
~26M
Up from 17.2 m in 2010/11 — 51% growth, no new-build line
London–Edinburgh rail share
57%
From ~32% in 2010 — rail overtook air for the first time April 2022
ECML journey time
4 h 16
Same as 1991 IC225 peak. Modal shift achieved without speed gains.
HS2 cost to date
£37.9B
Spent to April 2025. No track laid. Will not reach Edinburgh.

This brief uses Britain’s East Coast Main Line — the 393-mile electrified rail corridor linking London King’s Cross with Edinburgh Waverley — as a case study in the incremental improvement model of rail investment. Over 25 years from 2000 to 2025, the ECML grew from approximately 13.5 million annual franchise passenger journeys to an estimated 26 million, a near-doubling achieved without any new-build infrastructure. On the London–Edinburgh corridor specifically, rail has shifted from a minority mode to the majority mode, overtaking air travel for the first time in modern British transport history.

This trajectory is contrasted with HS2 — the purpose-built high-speed greenfield programme announced in 2009 to serve the same national corridor. HS2 has spent an estimated £37.9 billion to April 2025 and has laid no track. It will not reach Edinburgh, nor Manchester, nor Leeds, the cities that anchored its original business case. The cost-per-mile of the residual London–Birmingham segment now exceeds the entire ECML investment programme by a factor of ten or more in real terms.

“The commonly stated threshold for rail dominance over air is 2.5 to 3 hours. The ECML overtook air at 4 hours 16 minutes. The threshold is not fixed; it is a function of price, frequency, reliability and city-centre access — variables HPR controls and ALTO does not.”

Section 1|The ECML Improvement Model 2010–2025

Twenty-five years of incremental investment

The ECML performance record since 2000 reflects a series of discrete, independently productive investments — not a single megaproject. Every upgrade has been revenue-generating from the day it entered service.

The East Coast Main Line runs 393 miles from London King’s Cross to Edinburgh Waverley via Peterborough, Grantham, Newark, Retford, Doncaster, York, Darlington, Durham and Newcastle. It was built by three Victorian railway companies between 1845 and 1868, electrified at 25 kV between 1988 and 1991, and privatised in 1996. The line is owned and maintained by Network Rail; passenger services are operated by LNER (long-distance, since 2018), with open-access competition from Hull Trains (since 2000), Grand Central (since 2007) and Lumo (since 2021).

A third of the UK population lives within 20 minutes of an ECML station. The line carries both intercity passenger services and heavy freight, demonstrating that mixed-use operation on an existing corridor is sustainable at high passenger volumes.

Key investments since 2000

2003–05
InterCity 225 refurbishment — £230 m

Bombardier overhauled the Class 91 fleet and Mk.4 stock under “Project Mallard.” Extended the existing 1991 fleet by 15+ years. A maintenance investment, not a megaproject.

2000–07
Open-access competition introduced

Hull Trains (2000) and Grand Central (2007) launched competing services on ECML paths. Both still operate. Price competition stimulated demand growth across the corridor.

2019
Azuma Class 800/801 fleet — £2.7 bn

56 bi-mode trains built by Hitachi under the Intercity Express Programme. Replaced all IC125 and most IC225 sets. Reliability improvements; modest journey time gains.

Oct 2021
Lumo low-fare open-access launch

Cheapest fares from £26.90. Carried its millionth passenger within 13 months. Directly targeted the air market. Modal shift accelerated immediately.

Section 2|Passenger Data and Modal Split

The numbers behind the modal shift

Franchise passenger journeys grew from 17.2 m to 26 m. London–Edinburgh rail share grew from 32% to 57%. Both happened on the same infrastructure with the same maximum speed.

Annual franchise passenger journeys and rail/air modal split

LNER/predecessor franchise (long-distance intercity services only). Modal split figures are estimates for the London–Edinburgh corridor pair, derived from ORR rail flow data and CAA domestic aviation route statistics. Amber = COVID disruption; green = modal shift year.

Year Pax (m) Operator Rail % Air % Key context
2010/11 17.2 East Coast (state) ~32% ~68% State operator rebuilds after NXEC collapse
2011/12 18.0 East Coast (state) ~33% ~67% Record revenues; £440 m returned to Treasury
2012/13 18.6 East Coast (state) ~33% ~67% Continued public outperformance; Grand Central adds Edinburgh
2013/14 19.8 East Coast (state) ~34% ~66% Best year under state management; £1 bn+ to Treasury
2014/15 20.1 East Coast / VTEC ~34% ~66% VTEC takes over March 2015
2015/16 20.5 VTEC ~34% ~66% VTEC timetable; new pricing initiatives
2016/17 21.0 VTEC ~35% ~65% VTEC losses mount behind the scenes
2017/18 21.8 VTEC ~35% ~65% Final VTEC year; franchise terminated 3 years early
2018/19 23.0 LNER (state) ~36% ~64% LNER takes over June 2018; Azuma enters service May 2019
2019/20 22.1 LNER ~36% ~64% Pandemic truncates year from March 2020
2020/21 4.8 LNER ~55% ~45% COVID lockdowns collapse both rail and air
2021/22 15.8 LNER ~52% ~48% Lumo launches October 2021
2022/23 24.1 LNER ~57% ~43% First time rail > air on London–Edinburgh
2023/24 25.0 LNER ~56% ~44% LNER at 111% of 2019 levels
2024/25 ~26.0 LNER ~56% ~44% Estimated; Edinburgh Airport record 15.8 m total pax

Journey times stayed flat. Modal shift happened anyway.

The most striking feature of the journey-time record is what is missing: any meaningful improvement. The ECML’s fastest London–Edinburgh service in 1991, on the brand-new IC225, was 4 h 00 m. The fastest service in 2024, on the Azuma Class 800, is 4 h 16 m — fractionally slower, due to a regulatory speed cap that keeps the corridor at 125 mph (200 km/h) despite track and rolling stock both being capable of 140 mph.

Year Fastest service Typical timetable Context
1991 4 h 00 m 4 h 20 m IC225 full electrification; 140 mph capability; cap kept to 125 mph
2003 4 h 00 m 4 h 26 m Post-Hatfield recovery; refurbished IC225 fleet
2011 4 h 00 m 4 h 20 m East Coast state operator; IC225 at peak
2019 4 h 02 m 4 h 20 m Azuma Class 800 enters service
2022 4 h 16 m 4 h 20–25 m Azuma fleet fully deployed; Lumo non-stop 4 h 36 m low-fare
2024 4 h 16 m 4 h 20 m No new infrastructure; same times as 1991 IC225 peak
HS2 (projected) ~3 h 30–40 m* n/a *Edinburgh time projected with HS2 to Leeds — it will not reach Leeds
The 200 km/h validation

The ECML achieved 57% modal share at 200 km/h. This is HPPR’s design speed. The case for spending an additional 3.5× per kilometre to reach 300 km/h is not supported by the only large-scale European corridor that has actually demonstrated rail-overtakes-air on a multi-decade dataset.

Section 3|The HS2 Big-Bang Model

From 4-city national network to 140-mile fragment

High Speed 2 was first formally proposed in 2009 as a national connectivity programme: London to Edinburgh in approximately 2 hours, with Manchester, Leeds and Birmingham as intermediate megacities. It is now a London–Birmingham connector with no opening date, no track laid, and £37.9 billion already spent.

The project’s justification rested explicitly on the cities and passenger volumes it would serve north of Birmingham. The Birmingham–London segment in isolation, a 140-mile corridor already served by the West Coast Main Line at 2 h 00–2 h 20 m, had a much weaker cost-benefit case. The national network connectivity was not incidental to the business case; it was the business case. What is being built is the segment with the weakest standalone benefit, after the segments with the strongest benefit have been cancelled.

The progressive truncation of scope

Year Event Status
2009–10 Labour proposes HS2: London to Edinburgh via Birmingham, Manchester & Leeds. Cost: £20 bn. Opening: 2026. Announcement
2012 Coalition authorises Phase 1. Phase 2 planned. Cost revised to £32 bn. Authorised
2017 Phase 1 Act receives Royal Assent. Construction to start 2019. Cost ~£40 bn. Royal Assent
Sep 2020 Construction formally begins on 350+ sites across the 140-mile London–Birmingham corridor. Construction
Oct 2021 Phase 2 eastern leg (Birmingham–Leeds) quietly reduced in scope. Scope cut
Nov 2021 Phase 2 eastern branch formally cancelled. Leeds dropped entirely. Cancelled
Oct 2023 PM Sunak cancels all of HS2 north of Birmingham. Manchester gone. Edinburgh never. £37.9 bn spent. Major cancel
Oct 2024 Labour confirms it will not resurrect cancelled phases. “Litany of failure” review ordered. Confirmed
2025 Programme reset under new CEO. No track laid. 70% of earthworks done. No opening date set. Reset
~2030 Projected opening: Old Oak Common to Birmingham Curzon Street only. Euston connection 2031–2035. Projected

Sources: Wikipedia HS2 (March 2025); House of Commons Library CBP-9313 (March 2026); HS2 6-monthly Report to Parliament, July 2025; HS2 Ltd Project Update, October 2025; Construction Review Online, June 2025.

Section 4|Direct Comparison

What each approach actually delivers

£4–7 billion over 35 years bought a 393-mile electrified corridor carrying 26 million passengers and 58 million tonnes of freight. £37.9 billion over 16 years bought 140 miles of unfinished earthworks.

Investment comparison

Investment Nominal 2025 real Scope Status
ECML electrification (1988–91) ~£450 m ~£1.5 bn London KX to Edinburgh Waverley; 393 miles Delivered
IC225 refurbishment (2003–05) ~£230 m ~£500 m IC225 fleet overhaul; 10+ extra years Delivered
Azuma fleet (2016–21) ~£2.7 bn ~£3.2 bn 56 bi-mode trains Delivered
ECML incremental total ~£4–5 bn ~£6–7 bn All major investments inc. signalling In service
HS2 Phase 1 (London–Birmingham) £37.9 bn (to Apr 25) £67–100 bn+ final 140 miles; no track Mar 2026; Edinburgh: never Not open

Side-by-side outcomes

Dimension ECML (incremental) HS2 (big-bang)
Capital investment ~£4–7 bn (2025), full 393-mile corridor £67–100 bn+ projected, 140-mile London–Birmingham
Opening / revenue Operational since 1852; every upgrade revenue-generating from day one Not yet open; no confirmed opening date
Cities served London, Peterborough, York, Newcastle, Edinburgh + 20+ stops London, Old Oak Common, Birmingham Interchange, Curzon Street
Journey time (Lon–Edin) 4 h 16 m today; 4 h 00 m at 1991 peak Will not reach Edinburgh
Modal shift achieved Rail overtook air in 2022; ~57% rail share Not applicable — does not serve Edinburgh
Annual passengers ~26 million (2024/25); ~90% growth since 2000 Zero
Freight capacity Shared corridor; 58 million tonnes (2019) Passenger only; no freight provision
Scope vs promise Substantially as designed; incremental additions ongoing ~35% of original network scope (by city-pairs)
The opportunity cost

£37.9 billion bought 140 miles of unfinished railway. At the ECML cost-per-passenger-mile benchmark, that sum could theoretically have funded incremental improvements to every major intercity corridor in England and Scotland simultaneously. There are corridors where new-build is the only option. The HS2 experience establishes that the opportunity cost of choosing greenfield over incremental, when both are technically viable, is enormous.

Section 5|Five Lessons for ALTO Evaluation

What the ECML record means for Canada

Five findings drawn from twenty-five years of corridor data. Each one challenges a load-bearing assumption in the ALTO business case.

1
Modal shift does not require sub-3-hour journey times

The ECML achieved 57% modal share on a 632-km corridor at 4 h 16 m. The “3-hour rule” for rail dominance over air is not fixed — it is a function of frequency, price, reliability and city-centre access. HPR’s projected Toronto–Ottawa (~2 h 55 m) and Toronto–Montréal (~3 h 38 m) both sit comfortably below the threshold the ECML actually demonstrated.

2
Price competition is more powerful than speed alone

The sharpest ECML modal shift came not from new infrastructure but from Lumo’s October 2021 launch of low-fare service. Rail share jumped ~20 points in 12 months. ALTO’s business case attributes modal shift primarily to speed; the ECML record suggests fare-setting and open-access policy matter at least as much.

3
Big-bang programmes carry asymmetric scope-reduction risk

HS2 was truncated from a 4-city national network to a single 140-mile segment after construction began. The cancelled cities — Manchester, Leeds, Edinburgh — represented the majority of the project’s economic benefit. Once costs are sunk, the political economy makes outright cancellation difficult but full delivery economically unjustifiable. ALTO carries analogous scope risk.

4
Franchise instability is a P3 warning

Three of four ECML private operators failed; both periods of public operation outperformed them. East Coast alone returned approximately £1 billion to the Treasury during 2009–2015. The ECML is the most commercially attractive intercity corridor in the UK — yet it could not sustain profitable private operation. A less commercially mature Canadian corridor faces materially greater P3 risk.

5
Incremental investment generates revenue from day one

Every ECML investment — electrification, refurbishment, fleet replacement, open-access — was revenue-generating the day it entered service. HS2 will not deliver any revenue until ~2030 at earliest, sixteen years after construction began. Big-bang programmes defer all benefits until network completion and are therefore most exposed to scope-reduction dynamics.

Section 6|The ECML Lesson Applied to HPR

Why the British evidence base validates the Canadian alternative

VIA Rail’s structural problem is the ECML’s. The same root cause — passenger services compelled to share freight-controlled track — produces the same dysfunction. HPR is the Canadian application of the principle the ECML proved: untangle the corridor first, and outcomes follow.

The structural parallel: CN track sharing and the ECML franchise problem

The ECML’s history since privatisation is a record of dysfunction driven by misalignment between infrastructure ownership, train operations and passenger service obligations. Three of four private franchise operators failed financially; both periods of public operation outperformed them. The cause was structural in every case: operators committed to revenue forecasts on infrastructure they did not control, subject to capacity constraints they could not resolve, and priced into franchise premiums that assumed growth the shared-track regime could not deliver.

VIA Rail faces an identical — and more acute — structural problem. VIA owns only 3% of the track it operates. The CN Kingston Subdivision, the 540-km spine of the Toronto–Montréal corridor, is entirely CN property, operated on CN’s terms. CN’s statutory freight priority under section 116 of the Canada Transportation Act means that VIA’s new Siemens Venture fleet, capable of 200 km/h, operates at an average speed of approximately 74–78 km/h on a corridor that is physically capable of far more. VIA’s on-time performance has collapsed from 82% in 2013 to 51% in 2024, with 80% of trains running late in February 2025. VIA’s operating loss in 2024 was CAD $385.2 million — more than double its revenue.

The ECML parallel

Just as HS2 was proposed to resolve ECML capacity by building a new parallel corridor around the problem, ALTO HSR proposes to resolve CN track sharing by building around it at greenfield 300+ km/h. The ECML case study demonstrates that the alternative — resolving the root cause — delivers equivalent or superior passenger outcomes at a fraction of the cost. HPR adapts that principle to Canadian conditions: rather than upgrading the Kingston Sub for mixed use (the strict ECML model), it separates passenger and freight onto purpose-fit corridors so each can be optimised independently.

HPR: core concept

HPR has two integrated components:

HPPR
High Performance Passenger Rail

A new, dedicated, electrified double-track passenger railway co-built within the planned Highway 401 widening corridor between Toronto and the Quebec border. Designed for 200 km/h operation with VIA’s already-procured Siemens Venture fleet. No new GTA construction; connects through Union Station via the Lakeshore corridor. Ottawa via Smiths Falls Sub from a Brockville crossover; Windsor via VIA Windsor–London + liberated Dundas Sub.

HPFR
High Performance Freight Rail

What the CN Kingston Subdivision becomes once passenger services move to HPPR. Without passenger interleaving, CN runs longer trains on optimised timetables, eliminates siding dwell time, electrifies the corridor over time, and re-establishes competitive intermodal service on the Montréal–Toronto axis — a market lost to trucking. C$440 m/year efficiency dividend; 570–690k fewer truck movements/year.

Build One; Make One Free.

ECML evidence applied: the four-hour threshold and the price effect

Journey time threshold

Lon–Edin (ECML)
4 h 16
Tor–Mtl (HPPR)
3 h 38
Tor–Ott (HPPR)
2 h 55
Tor–Win (HPPR)
2 h 30
Tor–Kgn (HPPR)
1 h 30

Every HPPR journey time sits below the corridor length at which the ECML achieved majority modal share. The ECML evidence directly challenges the implicit assumption that only sub-3-hour greenfield HSR can deliver competitive modal shift in Canada.

The Lumo effect

The ECML demonstrated that the sharpest modal shift acceleration coincided not with new infrastructure but with the launch of a low-fare competing operator. HPPR’s structural separation from CN freight creates exactly the operating conditions for equivalent open-access competition in Canada: multiple operators, competing fares, and service frequencies that no shared-track regime with CN can sustain.

The Lumo precedent for Canada

Lumo’s £26.90 London–Edinburgh fare — broadly comparable to a CAD $45 Toronto–Montréal fare — drove rail modal share to 63% in July 2022. A dedicated, electrified HPPR corridor with open-access competition at equivalent price points would target YYZ–YUL’s ~2.9 million annual passengers more effectively than infrastructure investment that leaves the structural fare premium of monopoly rail service unchanged.

Co-benefits HPR delivers that ALTO structurally cannot

Construction CO₂ saving
3.9×
HPR 3.77 Mt vs ALTO 14.69 Mt — uses existing 401 ROW + Kingston Sub
Carbon payback period
~11 yrs
vs ALTO >500 years at 4 M passengers on the current grid
Co-construction saving
$4–8B
Available once with the planned 401 widening, and then never again
401 highway capital saving
$3–6B
6-lane vs 8-lane widening once HPFR removes 570–690k trucks/yr
01
401 road safety

Removing 2,250+ heavy commercial vehicles per day prevents an estimated 5–9 fatal collisions per year and avoids $45–110 M in annual accident costs. ALTO removes zero trucks.

02
Pavement preservation

A 25% HCV reduction extends the 401’s resurfacing cycle by 4–7 years and avoids an estimated $2.8–6.5 B in highway expenditure over 30 years. Structurally unavailable to ALTO.

03
Contrecoeur synergy

Port of Montréal Contrecoeur’s 1.15 M-TEU expansion (2030) uses rail-at-dock design. HPFR is the inland link that allows that investment to reach its full national impact. ALTO is invisible to Contrecoeur.

04
Supply chain resilience

HPFR creates a domestic east–west freight corridor reducing US border-crossing dependency under the 2025 25% tariff regime. ALTO provides zero supply chain benefit.

05
Distributed employment

HPFR intermodal hubs at Cornwall and Belleville place steady-state operational employment in communities with existing logistics infrastructure. ALTO’s permanent jobs concentrate at urban terminals.

06
CN network capacity release

HPFR’s optimised Kingston Sub frees path capacity across CN’s wider network for Northern Ontario mining (Sudbury, Ring of Fire), Prairie grain, and Ontario Northland. ALTO touches none of these flows.

Synthesis: the ECML as a validation framework

The East Coast Main Line case study validates three specific claims HPR makes in the Canadian context. First: modal shift exceeding 50% can be achieved at journey times of 4 h 15–20 minutes, without new greenfield 300 km/h infrastructure, at a fraction of the capital cost of purpose-built HSR. HPR’s projected journey times all sit comfortably below this threshold. Second: price competition is a faster and more powerful modal shift lever than journey time reduction — challenging the central premise of ALTO’s business case, which attributes modal shift primarily to speed. Third: incremental and co-located corridor upgrades generate revenue from day one, whereas big-bang greenfield programmes defer all benefits until network completion and are therefore most exposed to the scope-reduction dynamics that truncated HS2.

HPR operates in a different legislative context, and the HPPR/HPFR corridor swap has no direct ECML precedent — the ECML stayed mixed-use throughout. But the 25-year ECML record establishes that incremental improvement is not a second-best alternative to greenfield HSR. It is a fundamentally different and often superior approach to the same policy objective.

“Before committing a further $60–90 billion to ALTO, the federal government should formally test whether HPR can deliver comparable passenger and environmental outcomes at materially lower cost and risk. The ECML case study establishes that the answer to that question is at least plausibly yes. It has not been formally asked.”

Central recommendation: the Coalition for Better Rail recommends that the Parliamentary Budget Officer be commissioned to conduct a formal comparative lifecycle assessment of High Performance Rail against the ALTO HSR programme, using the ECML/HS2 case study as the international evidence base for the incremental improvement model. The cost of the assessment — estimated at $50–80 million — is less than one-tenth of one percent of the difference in capital cost between the two programmes.

Section 7|Data Sources and Methodology

The evidence base

Primary statistical sources

  • Office of Rail and Road (ORR) — Passenger rail usage statistics, quarterly and annual series 2000–2025
  • Civil Aviation Authority (CAA) — UK Airport Data, domestic route analysis 2000–2024
  • Department for Transport (DfT) — Aviation Statistics Table AVI0501; DfT Rail Statistics
  • Transport Scotland — Scottish Transport Statistics 2023, Chapter 8
  • Edinburgh Airport — Annual passenger data and press releases 2000–2024

HS2 sources

  • House of Commons Library Research Briefing CBP-9313: “High Speed Rail 2 — An Overview” (March 2026)
  • HS2 6-monthly Report to Parliament, July 2025 (DfT/Heidi Alexander)
  • HS2 Project Update, October 2025 (hs2.org.uk)
  • Construction Review Online, June/April 2025: cost figures and programme status
  • Wikipedia: High Speed 2 (March 2025 revision)

Operator and modal shift sources

  • LNER press release, June 2023: “A Record Two Years for LNER”
  • Lumo press release / ianvisits.co.uk, October 2022: 63% rail share in July 2022
  • Transform Scotland, November 2022: “Rail Overtakes Plane Edinburgh–London”
  • Railway Technology / GlobalData, September 2023: “The Great Modal Shift”
  • Which?, December 2023: domestic flights vs trains comparative analysis

HPR / Canadian sources

  • Coalition for Better Rail, HPR Strategy: Build One; Make One Free, April 2026 (beyondalto.ca)
  • Coalition for Better Rail, HPR 50-Year Lifecycle CO2 Budget Analysis, April 2026
  • VIA Rail Canada Annual Reports 2013–2024; on-time performance data, February 2025
  • Transport Canada, Canada Transportation Act, s.116 (statutory freight priority)
  • Port of Montréal, Contrecoeur Container Terminal project documentation

Methodology notes

Franchise data covers InterCity East Coast long-distance only; open-access operators add ~5–8% and are excluded for consistency. London–Edinburgh modal split figures are estimates for the corridor pair. COVID years (2020–22) shown for completeness, not as trend data. Monetary figures are nominal or 2025 real terms as stated. HS2 figures are official estimates; independent forecasts run higher. Full HPR evidence base at beyondalto.ca.

Independent · Non-Partisan
Coalition for Better Rail
The ECML Case for High Performance Rail — How Incremental Investment Beat the Big-Bang Model. Published April 2026.