Sustainable Development Goals
PROJECT INFORMATION AT A GLANCE:
Project Status:
Operating commercial reference
Organizations Involved:
City of Vancouver, Greater Vancouver Regional District (GVRD), BC Ministry of Environment, City of Burnaby, Fraser Health Authority, Babcock Wilcox, Alstom, BC Hydro, NORPAC, Veolia ES, Covanta
Services / Equipment:
Consulting, Feasibility Studies, Due Diligence, CSR Education Plan
This facility demonstrates what long-term waste infrastructure can achieve: decades of local treatment, useful energy and continuing improvements in resource recovery. Burnaby’s commercial strength is its ability to adapt as energy customers and regional needs change.
The Metro Vancouver Waste-to-Energy Facility began as a source of steam for a neighbouring paper mill. Electricity generation subsequently created another market for its energy. When the mill closed, steam was redirected into additional power production. Expanded metal recovery added further value to material remaining after combustion.
For municipalities and investors, this is a practical infrastructure lesson: the value of a waste-to-energy facility develops through its operating life, its customer connections and the decisions made to keep it useful.
The Challenge
A growing metropolitan region needs a dependable destination for residual waste after reduction and recycling. Disposal capacity, transport distances and the cost of managing that waste all affect the service delivered to residents and businesses.
Burnaby’s industrial location brought waste treatment closer to the communities it served and placed a steam customer nearby. The development challenge was to connect a regional waste-management requirement with a productive local use for the recovered energy.
Over a long operating life, that challenge evolves. Customers can close, energy markets can change and equipment needs renewal. An investment must account for how the facility will respond: where its energy can be sold, which upgrades improve recovery and how environmental performance will be maintained.
The Solution
Build around local waste and useful energy
Metro Vancouver owns the facility, with operations and maintenance provided by Veolia. Covanta forms part of its operating history. Waste is received primarily from Burnaby, New Westminster and the North Shore, making the plant part of the region’s wider waste-management system.
The facility uses three mass-burn combustion lines. This historical reference describes approximately 11 tonnes of waste per hour on each line. Heat produces steam, which can supply an industrial user or drive a turbine generator for electricity sales.
The facility reports historical annual reference figures of approximately 250,000 tonnes of waste treated, 900,000 tonnes of steam produced and 132 GWh of electricity generated. Steam production is an intermediate energy stream; the electricity is produced from that steam. These figures describe the historical operating reference and retain that basis.
Adapt the energy outlet as customers change
The original industrial steam relationship connected the facility to a neighbouring paper recycler. A turbine generator subsequently enabled electricity sales to BC Hydro. A C$7 million heat-recovery upgrade, illustrating continued investment in the asset’s productive capacity.
After the adjacent Norampac linerboard mill closed, steam previously supplied to the mill was redirected into additional electricity generation. The change demonstrates the commercial value of having another route to market for recovered energy, supported by equipment and power-purchase arrangements.
For a new project, the lesson is to evaluate the heat customer, the electricity outlet and the consequences of losing either. The energy system and its contracts must work together over the life of the plant.
Recover additional metals and maintain environmental controls
An eddy current separator expanded recovery of non-ferrous metals such as aluminium and copper from bottom ash. An additional magnetic separator improved ferrous-metal recovery. As a historical reference the facility reports approximately 7,000 tonnes of metal recovered annually, alongside a cumulative milestone of more than 5 million tonnes of waste processed.
The plant combines combustion control, flue-gas treatment and continuous emissions monitoring with independent stack testing and public reporting. Its provincial Operational Certificate sets the applicable requirements. This facility also records process-water reuse with no liquid discharge to the sewer apart from sanitary facilities, and ISO 14001 environmental-management certification.
Recovered metals enter recycling markets. Remaining ash requires managed destinations, including treatment and testing of fly ash before disposal. This complete material pathway is part of the plant’s operating design and cost base.
The Outcome
A long operating record with visible commercial results
Burnaby’s history demonstrates how a waste-treatment asset can remain useful through successive changes in equipment, customers and operating arrangements. Its established electricity sales and metal recovery provide tangible offsets to the cost of regional waste management.
The historical financial year retained in this reference provides a clear example. Metro Vancouver’s 2018 financial report (when this case study was created) records the following results in Canadian dollars:
| Historical financial measure | Reported result |
|---|---|
| Municipal solid waste processed | 253,123 tonnes |
| Total expenditure including ash management and debt charges | C$20,497,223 |
| Metro Vancouver’s electricity revenue | C$5,584,341 |
| Metro Vancouver’s metals revenue | C$191,495 |
| Expenditure per tonne before those revenues | C$80.98 |
| Electricity and metals revenue offset per tonne | C$22.82 |
| Net unit cost after those revenue offsets | C$58.16 per tonne |
Electricity and metals revenues covered approximately 28% of the reported expenditure in that year. Tipping-fee revenue was accounted for separately. This historical result shows how recovered products contributed to the municipal service economics; project-specific costs and revenues require their own assessment.
A platform for further energy use
The facility’s evolution also creates a district-heating opportunity. Metro Vancouver’s district-energy development targets heat and hot water for up to 50,000 homes at full build-out. This planned use of recovered heat extends the original idea of connecting a waste-treatment plant with nearby energy demand.
As a historical case report, a lifecycle comparison of 0.7 tonnes of net CO²e avoided per tonne treated relative to landfilling. That comparison depends on the landfill and energy assumptions used. The practical development task is to evaluate waste treatment, energy recovery, recycling and residual disposal within the same project boundary.
The facility’s record includes recognition from SWANA and engineering, energy and municipal organizations. Its lasting lesson is the importance of continued investment, documented performance and an energy strategy that can evolve with the community.
1. Design for a useful operating life measured in decades. Burnaby combines a long service history with successive energy and metal-recovery upgrades. Equipment renewal and market access belong in the investment plan from the outset.
2. Give recovered energy a durable route to market. The transition from paper-mill steam supply to additional electricity generation shows why customer resilience and alternative energy outlets matter.
3. Make resource recovery count in the economics. Historical electricity and metals revenues offset C$22.82 per tonne of reported expenditure. Evaluate those revenues alongside treatment, maintenance, ash management and financing costs.
These are selected achievements and lessons. Further technical and commercial insights are available through an engagement with Klean.
WHAT DO THESE LESSONS MEAN FOR YOUR PROJECT?
Klean can evaluate how a proposed facility connects residual-waste supply, site selection, energy customers, material recovery and long-term operating requirements. Existing plants also offer opportunities to assess energy efficiency, recovery improvements and new commercial uses for heat.
New equipment projects follow Detailed Equipment Quotation (DEQ) → Detailed Feasibility Study (DFS) → Front-End Engineering and Design (FEED). The engagement package outlines the work; the paid DEQ proposal provides the preliminary technical and commercial basis. Consulting, due diligence and existing-facility assignments are scoped to the project’s objectives.
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ABOUT THE INFORMATION PRESENTED
This case study combines Klean’s historical reference information with published owner, operator and regulatory records. Historical operating figures, the financial example and district-energy development targets retain their respective bases. Detailed project scope and confidential technical or commercial information are addressed through an agreed engagement with Klean.
This case connects with Goals 7, 8, 9, 11, 12, 13 and 15 through energy recovery, skilled employment, industrial infrastructure, urban waste services and improved resource management. Its central contribution is the continued productive use of residual waste within a regional system.
