Global CityIntelligence

Energy

Energy Readiness in Istanbul

Istanbul benefits from active national renewable build-out with diverse wind, hydro, and solar resources. Energy in Istanbul scores 66/100, placing it in the developing group of the indexed set.

Last updated
2026-05-10
Data year
2025
Module score
66/100

Energy score

Clean-energy readiness, grid resilience, and solar or efficiency opportunity signals.

Energy in Istanbul66/100

Energy readiness

66/100

Moderate directional transition score.

Grid adaptation

Growing

Renewable build-out supports planning continuity.

Renewable opportunity

Diverse

Wind, hydro, and solar support the transition.

Istanbul energy data table

This HTML table mirrors the visible score cards so important comparison data is never trapped in a browser-only chart.

Istanbul Energy data table
MetricValueContext
Energy readiness66/100National transition pace shapes the trajectory.
Grid adaptationGrowingStorage and interconnections shape grid plans.
Renewable opportunityDiverseResource mix shapes the local transition path.

Energy city comparison

A crawlable comparison across every indexed city makes it easy to scan how this module changes between metros.

Energy city comparison table
CityScoreSummary
Istanbul (this page)66/100Istanbul benefits from active national renewable build-out with diverse wind, hydro, and solar resources.
Oslo95/100Oslo benefits from a near-fully-renewable national grid led by hydropower, supporting deep electrification of mobility and buildings.
Copenhagen94/100Copenhagen has a mature energy-transition profile, with district energy experience and strong climate-adaptation planning.
Zurich92/100Zurich operates with a low-carbon electricity baseline, strong building-efficiency standards, and continuous district-energy investment.
Stockholm92/100Stockholm benefits from a low-carbon national grid and a long-running district energy and biofuel transition.
Vancouver90/100Vancouver operates with a low-carbon electricity baseline led by hydropower, with active building and transport electrification work.
Seattle90/100Seattle operates with a low-carbon electricity baseline led by hydropower, with active building and transport electrification work.
Amsterdam89/100Amsterdam has a clear clean-energy direction with district heat, offshore wind context, and active building-efficiency policy.
Berlin88/100Berlin has strong clean-energy direction supported by national renewable-electricity progress and city-level efficiency programs.
Helsinki88/100Helsinki is moving steadily through heating decarbonization with nuclear and renewable electricity supporting the wider transition.
Wellington88/100Wellington benefits from New Zealand's low-carbon electricity baseline with hydropower and geothermal providing most generation.
Vienna87/100Vienna has strong clean-energy direction supported by national hydropower, mature district-heating, and active building retrofits.
Paris86/100Paris has strong energy-transition direction, with building retrofits and heat adaptation central to its readiness profile.
San Francisco86/100San Francisco operates with active climate policy, a comparatively low-carbon grid, and strong building-efficiency programs.
Auckland86/100Auckland operates with a low-carbon electricity baseline led by hydropower and geothermal generation, with active building-efficiency work.
Montevideo86/100Montevideo benefits from Uruguay's leading renewable-electricity share with wind and hydropower providing most generation.
Singapore85/100Singapore is energy-import dependent but progressing on renewables, regional power imports, and strong building efficiency.
Tokyo84/100Tokyo has strong engineering capacity and resilience discipline, but energy transition is constrained by dense demand and climate stress.
London84/100London has strong clean-energy direction with retrofit-led building strategy, balanced against legacy infrastructure complexity.
Barcelona84/100Barcelona benefits from a strong solar resource, active rooftop programs, and clear urban-energy direction tied to building efficiency.
Munich84/100Munich benefits from active heating and grid-decarbonization work alongside Germany's national renewable transition.
New York82/100New York has serious clean-energy ambition and infrastructure complexity, with resilience shaped by coastal risk and dense demand.
Toronto82/100Toronto benefits from a low-carbon Ontario grid and ongoing building-efficiency efforts, with winter heat as a major energy lever.
Seoul82/100Seoul has strong engineering capacity and a clear energy-transition direction, with grid modernization and building efficiency as central levers.
Milan82/100Milan benefits from a strong national renewable build-out, district heating capacity, and active building-retrofit work supported by EU funds.
Lisbon82/100Lisbon benefits from strong national renewable build-out led by wind and solar, with active building-efficiency activity.
Abu Dhabi82/100Abu Dhabi benefits from exceptional solar resource and one of the world's largest utility-scale solar build-outs supporting clean-energy progress.
Hamburg82/100Hamburg benefits from coastal wind resource and active port and grid decarbonization programs.
Dublin82/100Dublin benefits from Ireland's growing wind capacity and an active building-retrofit and electrification policy.
Shenzhen82/100Shenzhen benefits from rapid EV adoption, active grid modernization, and proximity to renewable manufacturing.
Sydney80/100Sydney is in active energy transition with strong rooftop solar, ongoing grid modernization, and rising heat-driven cooling demand.
Madrid80/100Madrid benefits from strong national renewable build-out and rising solar and efficiency activity in the building sector.
Los Angeles80/100Los Angeles benefits from strong solar resource, ambitious state-level transition policy, and active building and transport electrification.
Brussels80/100Brussels is steadily decarbonising, with national policy momentum and active building-retrofit programs.
Edinburgh80/100Edinburgh benefits from Scotland's strong wind resource and active retrofit and electrification work.
Rio de Janeiro80/100Rio benefits from Brazil's hydropower-led low-carbon grid and active wind and solar build-out.
Hong Kong78/100Hong Kong has solid grid resilience and strong engineering capacity, with transition shaped by import dependence and cooling demand.
Dubai78/100Dubai has very strong solar resource and large-scale renewable projects, balanced by structural cooling demand and resource-import dynamics.
São Paulo78/100São Paulo benefits from a comparatively low-carbon national electricity baseline led by hydropower, with active work on building efficiency and distributed solar.
Santiago78/100Santiago benefits from one of the strongest national solar build-outs globally, with active building and transport electrification work.
Shanghai78/100Shanghai benefits from rapid national renewable build-out, leading EV adoption, and active building-efficiency work.
Taipei78/100Taipei has solid grid reliability with rising renewable build-out and active building and transport electrification work.
Doha78/100Doha benefits from exceptional solar resource and ambitious clean-energy targets supporting renewable build-out and efficiency programs.
Melbourne78/100Melbourne benefits from rapid renewable build-out at the state level, with rising distributed-solar adoption and active building-efficiency work.
Brisbane78/100Brisbane benefits from rapid renewable build-out at the state level and one of the world's highest distributed-solar adoption rates.
Osaka78/100Osaka benefits from active grid modernization and Japan's broader decarbonization policy.
Kyoto78/100Kyoto benefits from active retrofit programs and Japan's broader decarbonization policy.
Tel Aviv78/100Tel Aviv benefits from strong solar resource and active national grid modernization.
Perth78/100Perth benefits from exceptional solar resource and active grid modernization with high household solar adoption.
Nairobi76/100Nairobi benefits from a renewable-heavy national grid led by geothermal and hydro generation, with growing distributed solar adoption.
Rome76/100Rome's energy profile reflects solid Mediterranean solar resource and ongoing national renewable build-out, with building retrofits a focus.
Chicago76/100Chicago has solid grid reliability with strong wind resource in the region and growing building-efficiency activity.
Beijing76/100Beijing benefits from rapid renewable build-out and active grid modernization, with coal-heating transition the central lever.
Riyadh76/100Riyadh benefits from exceptional solar resource and active national renewable build-out under the national transition plan.
Quito76/100Quito benefits from Ecuador's hydropower-led low-carbon electricity baseline and active grid expansion.
Prague74/100Prague's energy profile reflects ongoing transition work, with district heating capacity and rising renewable share at the national level.
Casablanca74/100Casablanca benefits from Morocco's leading solar build-out and active grid modernization.
Panama City74/100Panama City benefits from Panama's hydropower-led electricity baseline and active solar build-out.
Bangkok72/100Bangkok has solid grid reliability with growing renewable build-out and active building-efficiency work in the commercial sector.
Bogotá72/100Bogotá benefits from a renewable-heavy national grid led by hydropower, with active EV-bus deployment and building-efficiency work.
Kuala Lumpur72/100Kuala Lumpur has solid grid reliability with growing solar build-out and active building-efficiency work in the commercial sector.
Addis Ababa72/100Addis Ababa benefits from Ethiopia's hydropower-led low-carbon electricity baseline and active grid expansion.
Mexico City70/100Mexico City has solid grid reliability with growing renewable capacity at the national level and active work on building efficiency.
Cape Town70/100Cape Town has solid renewable potential and active local transition work, balanced by national grid-supply variability.
Warsaw70/100Warsaw's energy profile reflects an active transition with district heating decarbonization and rising renewable share.
Buenos Aires70/100Buenos Aires has solid grid reliability with growing renewable build-out at the national level and active building-efficiency activity.
Lima70/100Lima has solid grid reliability with growing renewable build-out and active building-efficiency work.
Kigali70/100Kigali's energy profile reflects an active transition with growing renewable build-out and rising solar adoption supporting national targets.
Bangalore70/100Bangalore benefits from strong solar resource and active grid expansion, with services-sector demand shaping the transition.
Jakarta68/100Jakarta's energy profile reflects an active transition with growing renewable build-out at the national level and rising efficiency programs.
Cairo68/100Cairo benefits from exceptional solar resource and active national grid modernization.
Manila66/100Manila's energy profile reflects an active transition with growing renewable build-out and rising distributed-solar adoption.
Mumbai66/100Mumbai's energy profile reflects an active national transition with growing renewable build-out and rising distributed-solar adoption.
Ho Chi Minh City66/100Ho Chi Minh City benefits from strong solar resource and active grid expansion, with coal-heavy electricity the central transition lever.
Delhi66/100Delhi benefits from rapid solar build-out and active grid expansion, with coal-heavy electricity the central transition lever.
Johannesburg64/100Johannesburg's energy profile reflects an active national transition with rising renewable build-out and ongoing grid-resilience work.
Hanoi64/100Hanoi benefits from active grid expansion and Vietnam's growing renewable build-out.
Lagos60/100Lagos' energy profile reflects an active transition with rising distributed-solar adoption and ongoing grid-modernization work.
Accra60/100Accra benefits from active grid expansion and Ghana's growing renewable build-out, with reliability the central operational lever.

Interpretation

Energy scoring weighs resource context, infrastructure maturity, and adaptation capacity. Across the indexed cities the energy average is 78/100, so Istanbul is 12 points below the median. Data year 2025; last updated 2026-05-10. Drawn from 3 institutional references.

Read this module with the main open the istanbul city profile and the read the scoring methodology page so single-topic pages do not hide tradeoffs across dimensions.

Structured indicators on this page are directional and intended for orientation. Verified datasets are being integrated; official sources should be used for critical decisions.

Sources

3 institutional references inform this view, listed below with reliability notes. Structured indicators on this page are directional and intended for orientation; verified datasets are being integrated and official sources should be used for critical decisions.

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Safety in Istanbul

Personal safety, institutional trust, and resilience signals informed by international safety and crime data.

Internet Speed in Istanbul

Broadband and mobile connectivity quality, latency, and digital-readiness signals for residents and remote workers.

Climate Risk in Istanbul

Climate exposure, hazard frequency, and adaptation context for floods, heat, storms, and wildfires.

Overall Intelligence

A balanced ranking of cities across affordability, air quality, clean-energy readiness, and resilience.

Quality of Life

Cities that combine strong services, mobility, safety, clean air, and resilience into a healthy day-to-day profile.