Canada’s data centre moment: Building capacity responsibly

On 3 September 2026, Minister of Artificial Intelligence and Digital Innovation Evan Solomon and Federation of Canadian Municipalities President Tim Tierney announced the Responsible Data Centre Development Principles, a common national framework supported by signatories across the data centre, cloud, AI, and technology sectors. The principles are intended to complement, rather than replace, provincial, territorial, municipal, and Indigenous regulatory and approval processes. Their importance lies in establishing a shared baseline against which major projects can be assessed and discussed across jurisdictions.^[1]

The framework sets out five expectations that together broaden the definition of a successful data centre project ^[2]:

1. Create lasting local benefits: Projects are expected to generate benefits for host communities and Indigenous rights holders, potentially including jobs, skills training, apprenticeships, local and Indigenous procurement, tax contributions, infrastructure investment, research partnerships, and access to compute. Early engagement is positioned as a way to align benefits with local priorities, rather than defining them after key development decisions have been made.
2. Protect electricity ratepayers and grid reliability: Project-driven electricity costs should not be shifted to households or existing businesses. Proponents are expected to pay for the generation, transmission, substations, and grid upgrades attributable to their projects, proportionate to scale and impact. Where required, projects should also contribute new supply, storage, infrastructure, or demand flexibility.
3. Minimise water use and environmental impacts: The principles call for reduced freshwater consumption, protection of local supplies and preference for lower-impact technologies and practices. Closed-loop or high-efficiency water systems, low-emission energy sources, and waste heat recovery are explicitly identified, alongside measurement and transparent reporting using recognised standards.
4. Be transparent about local impacts: Proponents should engage early with local governments and Indigenous communities and provide project-appropriate, independently verifiable information on power and water demand, infrastructure needs, sound, and emissions. Material commitments should then be tracked over time.
5. Bring strategic value to Canada: Projects should strengthen domestic investment, supply chains, innovation, workforce development, and access to compute, while supporting long-term digital resilience, security, and Canadian access. Facilities supporting sensitive data, public services, or critical systems are also expected to meet appropriate requirements for legal protection, cybersecurity, and continuity of service.

Taken together, these expectations signal a shift from evaluating data centres principally as private real estate and power-load projects toward assessing them as integrated infrastructure.

For developers, this shift towards integrating data centres into communities raises the value of clearly articulating electrical load and water forecasts, showcasing credible community-benefit commitments, and publicly report plans (e.g., via ESG strategies) relating to grid connections, cooling and water-use, backup power, emissions, noise, and heat reuse.

For municipalities and utilities, the principles provide a common vocabulary for asking whether a proposal will pay its own way and create benefits proportionate to its impacts.

The federal framework arrives alongside more interventionist provincial approaches. Ontario’s proposed Data Centre Playbook would assess grid connections through economic development, digital sovereignty, and community-benefit criteria. It also proposes that data centres pay the full cost of their electricity-system impacts, considers a separate rate class for large new facilities, and prioritises modern cooling approaches that limit water consumption.^[3]

British Columbia has moved toward competitive allocation of electricity for large AI and data centre loads, reflecting the need to manage scarce clean-power capacity while weighing economic, environmental, community, and data-sovereignty benefits.^[4] Alberta’s AI Data Centre Strategy, by contrast, emphasises scalable power generation, sustainable cooling, and economic growth, including offgrid and grid-connected solutions, water-conscious cooling, and exploration of waste heat capture and use.^[5]

The policy instruments differ, but the direction consistently trends toward a systems-based approach that integrates power, water, and public confidence into one comprehensive strategy. Projects will increasingly need an integrated business case that responds to provincial electricity structures and local planning realities while meeting broader national expectations.

This regional variation reflects a global pattern. North America remains focussed on scale and speed-to-market, with power availability, interconnection timelines, and public concerns around water, noise. and infrastructure burden shaping project viability. Europe is generally more prescriptive on sustainability, with planning expectations increasingly tied to carbon, renewable energy, biodiversity, water stewardship, and waste heat reuse. Asia-Pacific is more diverse, with development shaped by government policy, energy security, land availability, data sovereignty and climate risks such as flooding, typhoons, and water stress. However, across all regions, sustainability is moving from a corporate aspiration to a development requirement.

A site-selection approach becomes particularly relevant with the rollout of these new Data Centre Development Principles. Many of the framework's objectives, including protecting ratepayers, reducing environmental impacts, supporting transparency, and delivering community benefits, are influenced by decisions made long before detailed design begins. Site selection increasingly requires an integrated assessment of power availability, transmission and substation capacity, water resources, permitting requirements, transportation access, workforce availability, land-use compatibility, and opportunities for local economic development.

For AI facilities, these considerations become even more important. While training workloads can be located farther from major population centres than traditional latency-sensitive facilities, higher rack densities can drive significant demands for electricity infrastructure, cooling systems, and water resources. As a result, developers must evaluate not only where power is available today, but also where future grid capacity, water availability, permitting timelines, and community acceptance can support long-term growth. The most successful projects will be those that align technical requirements with local infrastructure, environmental conditions, and community priorities from the earliest stages of development.

Increasingly, site selection is becoming a strategic exercise that balances power, water, infrastructure, schedule, environmental performance, and social licence. The principles provide a common framework for evaluating these trade-offs, encouraging projects that are not only technically and economically viable, but also support broader community, utility, and public-policy objectives.

Waste heat recovery is specifically named in the federal principles as a lower-impact practice. It is also an area where responsible development can become visible to host communities, particularly where recovered heat can serve buildings, campuses, industry or district energy networks. With more than 200MW of data centre heat recovery expertise, Ramboll understands the benefits this can bring to communities. However, successful reuse depends on more than installing a heat exchanger. It requires suitable heat users, compatible temperatures, viable distance, electricity capacity for heat pumps, clear ownership and performance obligations, and coordinated development timelines. Europe’s denser development patterns and emerging policy requirements can make these connections easier to justify; in North America, adoption will depend on creating the regulatory, commercial and physical conditions needed to connect data centres with viable heat customers.

Canada’s Responsible Data Centre Development Principles do not resolve every project-level trade-off, nor do they replace binding approvals. They do, however, provide a framework for ensuring that projects will not unfairly transfer costs, can manage water and environmental impacts transparently, and will create lasting strategic and local value.

^{Sources
[1] Innovation, Science and Economic Development Canada, “Government of Canada launches Canada’s Responsible Data Centre Development Principles,” 3 September 2026.
[2] Innovation, Science and Economic Development Canada, Canada’s Responsible Data Centre Development Principles, Government of Canada, 3 September 2026
[3] Government of Ontario, “Ontario Launches Data Centre Playbook,” 13 August 2026, and Data Centre Playbook media backgrounder.
[4] Government of British Columbia, Industrial Electricity Allocation Framework, Province of British Columbia, last updated 31 March 2026; and BC Hydro, B.C. Launching Competitive Process for Clean Power in High-Demand Sectors, 30 January 2026.
[5] Government of Alberta, Alberta’s AI Data Centre Strategy, December 2024, pp. 8-11.}