Quebec (residential Tier 1 ≈ 7.2 ¢/kWh, >99 % renewable hydro) and Manitoba (9.97 ¢/kWh flat, >99 % renewable) are Canada’s two optimal provinces for Bitcoin mining and AI compute hashcenters in 2026 — with British Columbia (11.87 ¢/kWh Tier 1) a competitive third — while Nova Scotia (19.1 ¢/kWh), Yukon (28.4 ¢/kWh), and Nunavut (74.9 ¢/kWh) are prohibitively expensive for any continuous energy-intensive load.

Why Canadian electricity rates matter for Bitcoin mining and AI compute

Electricity is the single largest operating cost for a Bitcoin mining operation and for any AI compute hashcenter running GPU clusters or inference servers around the clock. A 1 MW ASIC installation consuming 1,000,000 kWh per month costs $7,180 CAD/month in Quebec (Tier 1 estimate) versus $19,128 CAD/month in Nova Scotia — a $143,400 CAD/year gap on a single megawatt before any other costs. At 10 MW scale, that difference is $1.4 M/year. Province selection is the most consequential infrastructure decision a hashcenter operator makes.

For AI inference servers, the economics are similar: a rack of eight H100s draws roughly 25–30 kW continuously. Twelve such racks (≈ 300 kW) cost $257,000 CAD/year in Quebec versus $687,000 CAD/year in Nova Scotia. The gap funds a full engineering hire in Quebec.

This dataset was assembled from primary utility tariff schedules and cross-checked against the Canada Energy Regulator (CER) 2026 market snapshot. D-Central Technologies operates out of Laval, Québec and has direct experience with Hydro-Québec’s rate structures. Related resources: cost to mine 1 bitcoin calculator, ASIC profitability leaderboard, AI consulting Quebec.

Canadian electricity rates by province and territory — 2025/2026

All rates are in Canadian dollars per kilowatt-hour (¢/kWh) sourced from primary utility tariff schedules. Rates marked with (~) are approximate — cross-check with the linked utility tariff schedule before using for financial modelling. Rates shown are for the electricity commodity component; provinces with deregulated markets (Alberta) or multiple local distribution companies (Ontario) have additional delivery charges that can add 6–15 ¢/kWh to the total bill. As of June 2026 — rates change; verify at source before financial decisions.

* BC and NL at large industrial rates (verify with utility). ‡ PEI uses an inverted tier structure: first 2,000 kWh billed higher, above 2,000 kWh billed lower — unusual. † NL island residential not ideal; Labrador industrial users may access competitive rates from Churchill Falls via NL Hydro. ⚠️ QC rates for >5 MW data-centre and blockchain loads are subject to proposed new tariffs pending Régie de l’énergie approval in H2 2026. ~ NU rate effective Oct 1, 2023; QEC filed a GRA for April 2025 rate changes — verify current rate at source. † BC energy rates (11.87¢/14.08¢) reflect Schedule 1101 tariff effective April 1, 2025; the April 1, 2026 BCUC-approved 3.75% net bill increase was applied via basic charge and rate riders, not per-kWh energy rates.

Rate tier map — Canada by province (schematic)

Mining and AI hashcenter suitability by province

Tier A — Optimal (< 12 ¢/kWh; renewable grid; recommended)

Quebec (QC) is historically Canada’s top jurisdiction for Bitcoin mining and AI compute hashcenters. Hydro-Québec’s massive James Bay hydro infrastructure — built from the 1970s through the 1990s — is fully amortized, delivering renewable baseload electricity at consistently low rates. The Tier 1 residential rate of approximately 7.2 ¢/kWh (after the April 1, 2026 3 % increase) understates the advantage for large operators: industrial customers on Rate L (≥ 5,000 kW contract) have historically accessed rates near 6.5 ¢/kWh or less. Quebec also offers cold winters (free cooling credit), bilingual workforce, political stability, and no active electricity moratoriums as of this writing. Critical caveat: Hydro-Québec has proposed (pending Régie de l’énergie approval, targeted H2 2026) a new data-centre tariff of ~13 ¢/kWh and a blockchain/crypto tariff of ~19.5 ¢/kWh for loads > 5 MW. Existing customers get multi-year transition rates. Verify the current status of these proposals with Hydro-Québec before committing to a Quebec hashcenter build-out at utility scale. D-Central offers AI consulting services in Quebec and can help navigate the regulatory landscape.

Manitoba (MB) is Canada’s second-cheapest province at 9.97 ¢/kWh flat (effective January 1, 2026, +4 %). Manitoba Hydro generates approximately 99 % of its power from renewable hydro sources including the Nelson River system. Like Quebec, Manitoba offers cold climate (passive cooling benefit) and stable Crown-corporation utility relationships. Large industrial users should contact Manitoba Hydro directly for GS (General Service) and High Voltage industrial tariffs, which are substantially lower than the residential rate. Manitoba has no known moratoriums or sector-specific restrictions on mining or AI compute as of June 2026.

British Columbia (BC) at 11.87 ¢/kWh (Tier 1) and 14.08 ¢/kWh (Tier 2) is a strong third option, powered by 97 % renewable hydro (including the Peace and Columbia river systems). BC Hydro’s large industrial rates (Schedule 1500 series) are meaningfully lower than residential tariffs for qualifying customers. The wet climate and data-sovereignty advantages of being outside the US are additional considerations for local AI compute operators.

Tier B — Marginal (12–18 ¢/kWh; viable with strategy)

Ontario (ON) presents a split picture. Standard tiered RPP rates (12.0 ¢/kWh Tier 1, 14.2 ¢/kWh Tier 2; effective November 1, 2025) are too high for most Bitcoin mining to pencil out. However, Ontario’s Ultra-Low Overnight (ULO) rate of 3.9 ¢/kWh (daily 11 pm–7 am) is among the cheapest electricity windows on the continent — enabled by Ontario’s large nuclear baseload (≈ 50.5 % of generation) running continuously regardless of demand. Miners and AI inference servers that can load-shift to the ULO window while avoiding the on-peak rate (39.1 ¢/kWh, 4–9 pm weekdays) can achieve competitive economics. Ontario’s Global Adjustment charges add significant cost for Class B commercial customers. Class A industrial customers (> 1 MW) can access Global Adjustment relief programs that may make Ontario competitive. TOU-optimised mining controllers and AI inference schedulers are the enabling technology here.

Alberta (AB) has a deregulated electricity market. The Regulated Rate of Last Resort (RoLR) is approximately 12 ¢/kWh for the energy commodity component only — but delivery charges, transmission, distribution, and admin fees typically bring residential all-in costs to 18–25 ¢/kWh, making Alberta generally unattractive for energy-intensive operations at residential or small commercial rates. Industrial customers negotiating long-term power-purchase agreements (PPAs) with renewable developers may access stranded wind/solar power at competitive rates, but this requires capital and long-term commitment. Alberta’s grid is gas-dominated (carbon footprint consideration).

Tier C — Not viable (> 18 ¢/kWh or structural constraints)

Saskatchewan (SK) — 15.5 ¢/kWh: Coal and gas grid, among the highest carbon intensity in Canada. Rate increases planned for 2027. Not suitable for Bitcoin mining or AI hashcenter operations.

New Brunswick (NB) — 15.4 ¢/kWh: Mixed grid (nuclear ~30 %, hydro ~20 %, gas/oil). Mid-range rates for Atlantic Canada, but still too high for competitive mining. NB Power’s industrial rates for large customers may be more favourable; contact NB Power directly.

Newfoundland & Labrador (NL) — 15.2 ¢/kWh: Island residential rates are mid-range despite massive hydro reserves — transmission costs and constrained island grid are the barrier. Churchill Falls (5,400 MW) in Labrador provides some of the cheapest large-scale hydro power in North America, but this primarily benefits provincial and Labrador-region industrial users. NL Hydro’s industrial rates in Labrador may be competitive; contact NL Hydro for current schedules.

Prince Edward Island (PE) — 14.4 ¢/kWh (first 2,000 kWh): Island grid with capacity constraints. Heavily import-dependent from New Brunswick. PEI uses an unusual inverted tier structure (Tier 2 above 2,000 kWh/month is cheaper at 11.42 ¢/kWh) — interesting for high-consumption residential customers, but island grid infrastructure limits large new loads.

Nova Scotia (NS) — 19.1 ¢/kWh: Highest rates on mainland Canada. NS Power (a regulated private utility owned by Emera) has been undertaking coal phase-out, but the transition costs are reflected in rates. Rate increases of 7 % over two years were approved through 2026. Not suitable for energy-intensive operations.

Yukon (YT), Northwest Territories (NT), Nunavut (NU): Remote grids, diesel-dependent in many communities, extremely high rates. YT at 28.4 ¢/kWh, NT at 36.9–89 ¢/kWh (varying by community zone), and NU at 74.9 ¢/kWh (Oct 2023 — verify current) are definitively unsuitable for mining or AI compute. GNWT and Nunavut cost-of-living subsidy programs reduce resident electricity costs, but the underlying generation economics make any intensive load impossible to sustain economically.

Hydro-Québec deep-dive: proposed tariffs for data centres and blockchain (2026)

In 2024–2025, Hydro-Québec filed a proposal with the Régie de l’énergie (Quebec’s energy regulator) to establish two new electricity tariff categories for large-load customers, expected to take effect in the second half of 2026 subject to regulatory approval:

• Data centre rate (proposed): approximately 13 ¢/kWh average, applicable to facilities with a contracted power > 5 MW. A five-year transitional rate applies to existing data-centre customers.
• Blockchain / cryptographic use rate (proposed): approximately 19.5 ¢/kWh average, applicable to blockchain operations (including Bitcoin mining) drawing > 5 MW. A three-year transitional rate applies to existing blockchain customers. Hydro-Québec cited the activity’s energy intensity and limited direct economic benefit to Quebec in its justification.

If approved, these rates would represent a significant increase from the current Rate L (large power industrial, approximately 6.5 ¢/kWh implied from Hydro-Québec’s own communications). The proposed data-centre rate of ~13 ¢/kWh would still be competitive with US colocation in many markets, but narrows Quebec’s advantage considerably. The proposed blockchain rate of ~19.5 ¢/kWh would make large-scale Bitcoin mining in Quebec economically challenging at most BTC price levels.

For operations below the 5 MW threshold: The proposed new rates appear targeted at large facilities (> 5 MW). Smaller mining and compute operations may continue on existing commercial tariffs. Verify with Hydro-Québec directly for your specific load profile.

D-Central Technologies will monitor this regulatory proceeding and update this dataset when the Régie de l’énergie issues its decision. For AI compute strategy and Quebec deployment guidance, see AI consulting Quebec and AI sovereignty consulting.

Download and use this dataset

This data is published under Creative Commons Attribution 4.0 International (CC BY 4.0). Free to use, share, and adapt with attribution.

API access

# All provinces
GET https://d-central.tech/wp-json/dc/v1/electricity-rates

# Single province
GET https://d-central.tech/wp-json/dc/v1/electricity-rates?province=QC

# Filter by mining suitability
GET https://d-central.tech/wp-json/dc/v1/electricity-rates?ideal_mining=true

# Filter by AI compute suitability
GET https://d-central.tech/wp-json/dc/v1/electricity-rates?ideal_ai_compute=true

File downloads

• JSON (machine-readable) — full dataset via REST API
• CSV (spreadsheet-compatible) — flat table, all 13 rows

These endpoints are generated by the dcentral-canada-electricity-rates mu-plugin and served via the /wp-json/dc/v1/electricity-rates REST route and a template_redirect CSV handler. The dataset is also registered into the site-wide DataCatalog on /data/.

Cite this dataset

D-Central Technologies (2026). Canadian Electricity Rates by Province — Mining and AI Compute Context [Dataset]. Version 1.0, June 2026. D-Central Technologies. https://d-central.tech/canada-electricity-rates-by-province/. Licensed under CC BY 4.0.

BibTeX:

@dataset{dcentral2026caelectricity,
  author    = {{D-Central Technologies}},
  title     = {Canadian Electricity Rates by Province — Mining and {AI} Compute Context},
  year      = {2026},
  month     = {6},
  version   = {1.0},
  url       = {https://d-central.tech/canada-electricity-rates-by-province/},
  license   = {CC BY 4.0},
  note      = {Rates as of June 2026; verify at source before financial decisions}
}

Attribution note: Primary data sourced from provincial utility tariff schedules (Hydro-Québec, BC Hydro, Manitoba Hydro, NB Power, Nova Scotia Power, SaskPower, Newfoundland Power, Maritime Electric, Yukon Energy Corporation, Northwest Territories Power Corporation, Qulliq Energy Corporation) and cross-checked against the Canada Energy Regulator (CER). D-Central Technologies compiled, framed, and published this dataset; all original tariff data is public information from the respective utilities.

See also: D-Central verified facts reference | open data hub | ASIC profitability leaderboard.

Frequently asked questions

Which Canadian province has the cheapest electricity for Bitcoin mining?

Quebec and Manitoba are the cheapest provinces for Bitcoin mining in Canada. Quebec’s Hydro-Québec residential Tier 1 rate is approximately 7.2 ¢/kWh (after the April 2026 3 % increase) and Manitoba Hydro’s flat residential rate is 9.97 ¢/kWh (effective January 2026). At large industrial scale (> 5 MW), Quebec’s Rate L has historically been near 6.5 ¢/kWh — one of the lowest utility-scale industrial electricity prices in North America. Critical note: Hydro-Québec has proposed a new blockchain/cryptocurrency-specific rate of approximately 19.5 ¢/kWh for operations drawing > 5 MW, pending regulatory approval in H2 2026. If approved, this would dramatically change Quebec’s cost position for large mining operations, and Manitoba would become Canada’s most competitive province for Bitcoin mining at scale without sector-specific rate restrictions.

Is Quebec electricity cheaper than Alberta for AI compute?

Yes, significantly. Quebec’s residential rate (~7.2–11.1 ¢/kWh tiered) and historical large-power industrial rate (~6.5 ¢/kWh) are far below Alberta’s typical all-in residential cost of 18–25 ¢/kWh (which includes delivery charges on top of the ~12 ¢/kWh Regulated Rate of Last Resort energy component). For an AI hashcenter running 300 kW continuously, Quebec at the current large-power rate saves approximately $430,000 CAD/year compared to a typical Alberta commercial rate. However, Hydro-Québec’s proposed data-centre tariff (~13 ¢/kWh, pending approval) would narrow this gap for facilities drawing > 5 MW. Smaller AI compute deployments below 5 MW are not targeted by the proposed new tariff. See our Quebec AI consulting services for deployment guidance.

What is Hydro-Québec’s commercial rate for data centres?

As of June 2026, Hydro-Québec has not yet established a formally approved dedicated data-centre rate — one is proposed but pending. Current large-power industrial customers (Rate L, requiring ≥ 5,000 kW / 5 MW contract primarily for industrial activity) pay approximately 6.5 ¢/kWh implied from Hydro-Québec’s own communications (the proposed new rate of ~13 ¢/kWh was described as “roughly double” the current large-power rate). For smaller commercial operations (Rate G for small power, Rate M for medium power), rates are higher than Rate L but lower than residential Rate D — consult Hydro-Québec’s published rate schedules at hydroquebec.com/business for your specific power demand level. The proposed new data-centre tariff of approximately 13 ¢/kWh is targeted at facilities exceeding 5 MW and is subject to approval by the Régie de l’énergie, with implementation expected H2 2026.

Why is Quebec electricity so cheap?

Quebec’s low electricity rates result from three compounding factors. First, Hydro-Québec’s massive hydroelectric infrastructure — primarily the James Bay / La Grande complex (developed 1971–1996, approximately 16,000 MW) and the Churchill Falls power contract in Labrador (approximately 5,400 MW at historically low contract rates) — is largely amortized. Second, Hydro-Québec operates as a provincial Crown corporation and passes savings directly to ratepayers rather than maximising returns for private shareholders. Third, Quebec’s geography provides exceptional water resources: the rivers draining into James Bay and the St. Lawrence system represent some of the highest hydroelectric potential in the world. The result is over 99 % renewable electricity (hydro + wind, CER 2023 data) delivered at rates that undercut fossil-fuel-dependent grids by 50–70 %.

Can I mine Bitcoin profitably in Ontario using the Ultra-Low Overnight rate?

Ontario’s standard tiered RPP rates (12.0–14.2 ¢/kWh; effective November 2025) are too high for most Bitcoin mining hardware to break even at typical network difficulty levels. However, Ontario’s Ultra-Low Overnight (ULO) rate of 3.9 ¢/kWh (available daily 11 pm–7 am) is among the lowest electricity windows in Canada — enabled by nuclear baseload that runs continuously regardless of demand. A disciplined ULO-only mining strategy, using programmable power controllers that run rigs exclusively during the 8-hour ULO window and shut down during the 39.1 ¢/kWh on-peak window (4–9 pm weekdays), can approach the economics of full-time mining at 3.9 ¢. At this rate, a 3,500 W ASIC running 8 hours/day costs approximately $0.33 CAD in electricity per day. This strategy requires careful load management and is best suited to home mining setups. Large-scale operations should explore Ontario Class A industrial programs for demand-response and Global Adjustment relief.

What makes Manitoba competitive for Bitcoin mining and AI compute hashcenters?

Manitoba combines four attributes that make it a hashcenter destination: (1) low electricity rates — 9.97 ¢/kWh flat residential (January 2026), with large industrial rates substantially lower; (2) near-total renewable generation — approximately 99 % hydro from the Nelson River system, satisfying ESG requirements and carbon-neutral hashcenter marketing; (3) cold climate — Winnipeg averages −16 °C in January, providing months of free-air cooling that substantially reduces HVAC costs for GPU clusters and ASIC farms; (4) no sector-specific restrictions — unlike Quebec’s proposed blockchain-specific rate, Manitoba Hydro has not implemented use-case-specific surcharges for cryptocurrency or data-centre loads as of June 2026. Manitoba Hydro is a Crown corporation under rate oversight by the Manitoba Public Utilities Board. See distributed compute overview and sovereign AI infrastructure in Canada for broader context.

Data sources and methodology

All rate data in this dataset is sourced from primary utility tariff schedules and official regulatory filings. Cross-checks were performed against the Canada Energy Regulator (CER) 2026 market snapshot. The following sources were used:

• Quebec: Hydro-Québec Rate D page; Gazette officielle du Québec, Vol. 157 No. 18 (April 30, 2025); Hydro-Québec 3 % April 2026 rate announcement; Hydro-Québec Rate L and proposed data-centre/blockchain tariff press release (2025). Note: Tier 1/Tier 2 rates for April 2026 are estimates derived from published April 2025 base rates (6.972 ¢ / 10.756 ¢) × 1.03 — the official Régie-approved PDF confirmed 3% increase; verify exact figures at hydroquebec.com.
• British Columbia: BC Hydro residential tiered rate page and Schedule 1101. Energy rates of 11.87¢/14.08¢ confirmed current as of April 2026 (April 2026 3.75% net bill increase applied via basic charge and rider, not per-kWh rates). Source: bchydro.com/tiered.
• Manitoba: Manitoba Hydro residential rates page, 9.97¢/kWh confirmed directly, effective January 1, 2026 (+4% PUB interim order). Source: hydro.mb.ca.
• Ontario: Ontario Energy Board RPP Price Report and backgrounder, effective November 1, 2025 – October 31, 2026. Tiered 12.0/14.2¢, ULO 3.9/39.1¢, TOU 9.8/15.7/20.3¢ confirmed. Source: oeb.ca.
• Alberta: AUC RoLR rates page: Edmonton 12.01¢/kWh, Calgary ~12.06¢/kWh, rate period January 1, 2025–December 31, 2026. Source: auc.ab.ca.
• Saskatchewan: SaskPower 2026 rate schedule; 15.476¢/kWh effective February 1, 2026 (+3.9% interim increase) confirmed. Source: saskpower.com.
• New Brunswick: NB Power General Rate Application; 15.39¢/kWh effective April 14, 2026 (from 14.76¢ × 4.29% EUB-approved increase) confirmed via CBC News reporting. Source: nbpower.com.
• Nova Scotia: Nova Scotia Power changes-to-power-rates page; 19.128¢/kWh (from 18.187¢ + 5.2% increase) effective May 1, 2026 confirmed. Source: nspower.ca.
• Newfoundland and Labrador: PUB Order P.U. 23(2025); Schedule R-1 flat rate 15.213¢/kWh, effective July 1, 2025 confirmed (+7% increase). Source: newfoundlandpower.com.
• Prince Edward Island: Maritime Electric Schedule of Adjusted Rates (effective March 1, 2025); 14.37¢/11.42¢ confirmed directly. Source: maritimeelectric.com.
• Yukon: yukonenergyrates.ca; Rate Schedule 1160, Block 1 28.4¢/kWh, Block 2 29.9¢/kWh, effective May 1, 2026 confirmed. Source: yukon-energy.ca.
• Northwest Territories: NTPC residential electrical rates page; thermal zone 36.90¢ (Tier 1) and 88.96¢ (Tier 2 base), effective February 1, 2026 confirmed. Source: ntpc.com.
• Nunavut: Qulliq Energy Corporation customer rates page; 74.94¢/kWh confirmed on QEC page (effective October 1, 2023). Note: QEC filed a GRA for April 2025 rate changes — verify current rate at qec.nu.ca before relying on this figure.
• Renewable share: Canada Energy Regulator, Renewable Energy in Canada — provincial pages, 2023 generation data. Source: cer-rec.gc.ca/renewable-power.
• CER aggregate cross-check: CER Market Snapshot 2026, “How much do your neighbours across Canada pay for electricity?” Source: cer-rec.gc.ca/2026-snapshot.

Methodology note: Rates shown are the electricity commodity / energy charge component from the respective utility’s residential tariff schedule. For provinces with significant delivery charges (notably Ontario and Alberta), the all-in consumer cost is materially higher. Commercial and large industrial rates are not shown in the main table because they vary by load profile, demand charges, and contract terms — contact the relevant utility directly for industrial rate schedules. Mining and AI compute suitability assessments reflect both the rate level and grid characteristics (renewable share, stability, sector restrictions) as of June 2026.

D-Central Technologies is a Canadian Bitcoin mining and sovereign computing services company based in Laval, Québec. We stand on the shoulders of the provincial utilities whose publicly available tariff data makes this resource possible. Rates change; this dataset is a starting point, not a substitute for direct engagement with your local utility.

Explore related resources: cost to mine 1 bitcoin | ASIC profitability leaderboard | Bitcoin mining in Canada | energy & sustainability | distributed compute | sovereign AI in Canada.