Building Canada Strong

Pacific Decarbonized Energy Corridor

A dual-site clean energy system that produces hydrogen at the decommissioned Burrard Thermal Generating Station in Port Moody and dispenses it at a centralized fuelling node adjacent to Waterfront Station in downtown Vancouver. Twelve offtaker applications across transit, marine, port operations, and aviation share a common supply infrastructure.

14,590
kg H2 per day
12 offtaker applications
84,420
tonnes CO2 displaced per year
Well-to-wheel basis
$1.12B
20-year NPV
At 5% discount rate
31.5M
litres diesel displaced per year
Across all offtaker sectors

Why this, why now

Canada sends 90% of its oil exports to a single customer. U.S. tariffs and trade uncertainty have made that vulnerability impossible to ignore. The federal government's response - build Canada into the world's leading energy superpower and diversify trade - is exactly what PDEC is designed to deliver: clean hydrogen produced from BC's existing natural gas and hydroelectric infrastructure, exported through Vancouver's deep-water port to energy-hungry allies in Asia and Europe.

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Trade Diversification

Energy-importing allies in Asia and Europe are actively seeking stable, democratic-origin clean fuel suppliers. Export-ready hydrogen and ammonia shipped through VFPA deep-water berths diversify Canada's trade into Japan, South Korea, and Germany, reducing dependence on the U.S. market.

Energy Security

Methane pyrolysis converts Montney formation natural gas from a $2/GJ commodity into $7-$9/kg hydrogen plus solid carbon co-products worth $5,000-$20,000/tonne, using the existing FortisBC pipeline at Burrard Thermal. No new pipeline construction required. Grid-tied electrolysis uses BC's existing clean hydroelectric power.

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Federal Alignment

This project directly satisfies six federal policy instruments: Major Projects Office fast-track framework, $5B Trade Diversification Corridor Fund, Budget 2025 Productivity Super-Deduction, Canada Infrastructure Bank ($337M precedent to HTEC), Carbon Border Adjustment Mechanism, and one-project-one-approval streamlined review.

The infrastructure problem, solved

Every previous hydrogen project in Canada was built for one customer. Purpose-built infrastructure serving a single application cannot achieve the utilization rates needed to justify the capital. The result: stranded assets, undersized supply, and projects that prove the technology works but fail commercially. PDEC takes a different approach.

Every other project
Single offtaker
One customer bears the full infrastructure cost. If they walk, the project dies.
Purpose-built
New site, new permits, new grid connection, new pipeline. Years of delay, tens of millions before first hydrogen.
Supply-constrained
Undersized production from off-site facilities. The technology works, but supply cannot scale to meet demand.
No redundancy
One production pathway. When supply fails, every downstream application stops.
PDEC systems approach
12 offtakers, shared infrastructure
Costs amortized across transit, marine, port, and aviation. No single customer exceeds 25% of demand.
Existing industrial campus
Burrard Thermal has grid, gas, port, and rail already built. $10-20M in day-one savings vs greenfield.
On-site commercial-scale production
14,590 kg/day produced where the infrastructure exists. Supply matches demand from day one.
Two pathways, full redundancy
Electrolysis + methane pyrolysis. Either can supply the full hub independently. Blended cost lower than either alone.

This Model Works

Multi-offtaker hydrogen hubs are operating today in Europe, Asia, and North America. PDEC applies the same approach at twelve times the scale, with existing industrial infrastructure.

Spain
Green Hysland
Mallorca, Spain
2022 operational

Solar-powered electrolyzer supplying transit buses, port operations, commercial building heat, and 115,000 households via gas grid injection.

Europe's first integrated H2 ecosystem
Japan
Namie Hydrogen Town
Fukushima, Japan
2020 operational

Single 10 MW electrolyzer supplying school buses, delivery vehicles, commercial buildings, residential fuel cells, and industrial boilers.

Full spectrum from one facility
Germany
eFarm
North Friesland, Germany
2020 operational

Wind-powered electrolysis supplying 12 transit buses, private vehicles, and district heating networks. Expanded twice since launch.

Mobility + electricity + heat
United States
Toyota Tri-Gen
Port of Long Beach, California
2024 operational

FuelCell Energy biogas-to-hydrogen facility producing 1,200 kg/day H2, 2.3 MW electricity, and water. Serves port logistics, Class 8 trucks, and the grid.

North America's first multi-output port H2 system
PDEC at a glance
$104.8M
annual value created
NPV-positive from year one
1,780+
Canadian jobs
280 permanent + 1,500 construction
$2/GJ → $9/kg
value transformation
BC natural gas, not stranded
4 Nations
economic partnership
Equity from inception, not afterthought
Full system architecture

12 offtakers from a single hub

Shared infrastructure costs amortized across twelve high-utilization demand applications eliminate the single-use economics problem that has constrained every previous hydrogen project in Canada.

4
Ferry fleets
🚍
80
Transit buses
15+
Harbour tugs
🚚
25
Drayage trucks
🚆
2
Rail lines
200+
Daily flights

Annual economics

Direct revenue 65%
Social 35%
Total annual value created $104.8M
Direct Revenue and Savings
Avoided diesel fuel cost (31.5M L at $1.60/L) $50.4M
Solid carbon co-product ($1,500/t base case) $8.4M
Oxygen byproduct + district heat + grid + blending $9.8M
$68.6M
Social and Externality Value
Social cost of carbon (84,420 t at $294/t SCC) $24.8M
Respiratory health savings (PM2.5 particulate reduction) $7.6M
Air quality improvement (NOx, SOx, ground-level ozone) $3.8M
$36.2M
Full economics analysis

Partnership ecosystem

Technology OEMs, supply chain, offtakers, academic institutions, and First Nations partners aligned around a shared infrastructure model.

Partner details and offtaker demand

Implementation plan

Phase 0

2026-2027 | $500K-$1M

Pre-development. BC Hydro site lease and Rate 1894 eligibility. VFPA Waterfront land lease. UVic IESVic feasibility study. NRCan and SIF applications. First Nations economic partnership framework.

Phase 1

2028-2030 | $160M-$265M

Construction and pilot. 5-10 MW electrolyzer, first pyrolysis unit, Waterfront dispensing infrastructure, SeaBus retrofit, WCE hydrogen power car, initial transit buses and port equipment.

Phase 2

2030-2032

Scale-up. Expand electrolyzer to 20-40 MW. Commission Hullo hydrogen vessels. Scale transit fleet to 80 FCEBs. Full port equipment conversion. Harbour Air H2-hybrid Twin Otter. BC Ferries partnership.

Phase 3

2033+

Export and national scale. LH2 or ammonia export via VFPA deep-water berth to Japan, South Korea, Germany. Mid-route dispensing nodes along CP Rail corridor. Open interface standards for multi-OEM interoperability.

Full implementation plan

Read the Executive Briefing

Detailed technical, economic, and partnership analysis of the Pacific Decarbonized Energy Corridor.

Download Briefing (PDF)