How MENA Is Reshaping the Global Energy Future Today

How MENA Is Reshaping the Global Energy Future Today

A striking solar power tower illuminated under the clear blue sky in Morocco. by pierre matile via Pexels

.

From Oil to Renewables: How MENA Is Reshaping the Global Energy Future

.

.

The Middle East and North Africa (MENA) is rapidly transforming from a fossil fuel-dominated region into one of the world’s fastest-growing clean energy markets. Governments are investing heavily in solar, wind, and green hydrogen while setting ambitious climate targets that are reshaping their long-term energy strategies.

The region’s combination of abundant sunshine, strong wind resources, competitive project costs, and supportive government policies is attracting billions of dollars in investment. As renewable projects move from planning to construction, MENA is positioning itself as a global leader in the clean energy transition.

Renewable Targets Are Driving a Regional Energy Shift

Climate ambition across MENA has accelerated significantly over the past few years. According to the International Energy Forum’s (IEF) Progress Report for MENA NDCs and Climate Action, most countries in the region have strengthened their renewable energy commitments under their Nationally Determined Contributions (NDCs).

As of 2024, 14 MENA countries had included explicit renewable energy targets in their climate plans. Twelve countries expressed these goals as a share of electricity generation, with many aiming for renewable electricity to account for at least 30% of their power mix by 2030. Four countries instead adopted capacity-based targets measured in gigawatts (GW).

Beyond their 2030 commitments, many governments have also introduced long-term strategies extending to 2050. These plans include net-zero emissions goals and higher renewable energy shares, signaling that clean electricity is becoming a central pillar of national economic development rather than simply a climate initiative.

Although each country follows its own pathway depending on its resources and existing energy system, the overall direction is consistent. Governments are working to diversify electricity generation, improve energy security, reduce emissions, and create new industries that support long-term economic growth.

Together, these commitments represent a structural shift in how the region plans its future energy system.

mena renewable outlook
Source: IEF

Solar Leads an Unprecedented Expansion

Solar power has become the engine behind MENA’s renewable energy growth.

  • The IEF estimates the region could install between 220 GW and 450 GW of solar photovoltaic (PV) capacity by 2035, allowing solar to provide roughly 25% of regional electricity generation.

This rapid expansion is supported by some of the world’s most competitive renewable energy markets. Public auctions held across the region have consistently produced record-low electricity prices.

In 2024, utility-scale solar projects achieved prices between $10 and $13 per megawatt-hour, while onshore wind projects secured bids ranging from $16 to $17 per megawatt-hour.

Several factors explain these exceptionally low costs:

  • Excellent solar irradiation across desert regions
  • Large-scale project development
  • Long-term power purchase agreements
  • Strong government support that lowers investment risk

The region is also home to several of the world’s largest renewable energy developments. Dubai’s Mohammed bin Rashid Al Maktoum Solar Park, for example, is expanding toward 5 GW of installed capacity, demonstrating how MENA countries are building renewable projects at a scale rarely seen elsewhere.

Solar MENA
Source: IEF

Project Pipeline Shows Strong Momentum

Recent data from Dii Desert Energy indicates that the region has entered what it describes as an “exponential growth phase.”

Operational renewable capacity reached 43.7 GW by the end of 2025, while the total development pipeline climbed to approximately 202 GW. This growing pipeline places the region much closer to achieving its renewable energy ambitions for 2030.

Renewable energy mena
Source: dii-desertenergy

Solar continues to dominate the expansion.

Installed solar PV capacity increased to 34.5 GW by the end of 2025, representing a sharp rise compared with previous years. Even more impressive is the development pipeline, where solar accounts for roughly 130 GW of future capacity.

Together, these figures suggest that renewable deployment across MENA is accelerating rather than slowing, with utility-scale projects driving most of the growth.

Saudi Arabia and the UAE Are Setting the Pace

Several countries are emerging as regional leaders, but Saudi Arabia has become the primary growth engine.

  • The kingdom nearly tripled its renewable capacity within a single year, increasing operational capacity to 11.7 GW.
  • Massive investments, supported by the country’s Vision 2030 strategy, continue to drive renewable deployment at an unprecedented pace.

Saudi Arabia also boasts some of the world’s lowest renewable electricity costs, helping attract both domestic and international investors.

The United Arab Emirates remains another major clean energy leader.

Construction is underway on a groundbreaking 5.2 GW solar project paired with 19 GWh of battery storage, designed to provide 1 GW of continuous baseload renewable electricity. The project demonstrates how large-scale battery storage is becoming an essential component of the region’s renewable energy strategy by improving grid reliability and reducing dependence on conventional power generation.

Wind Energy Continues to Gain Ground

Although solar dominates new installations, wind energy is steadily expanding across the region. Operational wind capacity reached 7.4 GW, while another 65 GW remains under development.

 

  • Egypt currently leads MENA with more than 3 GW of installed wind capacity, followed by Morocco with approximately 2.4 GW.

Much of the recent growth came from Egypt, where two major projects entered operation during 2025.

The Amunet Wind Farm added 505 MW, while the Red Sea Wind Energy Phase II project reached its full 650 MW capacity. Morocco also expanded its renewable portfolio by completing the 60 MW Dakhla Desalination Wind Farm.

  • Looking ahead, Saudi Arabia is expected to become one of the largest wind markets in the region. Several major projects have already secured financing, including the 2 GW Starah Wind Project and the 1 GW Shaqra Wind Project. Both developments are expected to begin operations between late 2027 and early 2028.

Although wind deployment is progressing more slowly than solar, the growing pipeline indicates that it will remain an important part of MENA’s diversified renewable energy mix.

solar and wind mena
Source: dii-desertenergy

Green Hydrogen Is Becoming the Next Growth Opportunity

Beyond electricity generation, MENA is increasingly positioning itself as a future global supplier of clean hydrogen.

The International Energy Forum notes that hydrogen has become a central feature of regional climate strategies since 2022. Governments increasingly view hydrogen as both a decarbonization tool and an opportunity to build entirely new export industries.

Hydrogen can help reduce emissions in sectors that are difficult to electrify, including steel production, chemicals, aviation, shipping, and heavy industry. It can also improve energy storage and strengthen long-term energy security.

Green hydrogen, produced using renewable electricity and electrolysis, dominates regional plans. According to the International Renewable Energy Agency (IRENA), more than 85% of announced hydrogen capacity across MENA involves green hydrogen projects.

However, several Gulf countries are also investing in blue hydrogen, which combines natural gas with carbon capture technologies. Policymakers see blue hydrogen as a practical transition pathway that can generate export revenues while renewable electricity capacity continues expanding.

Today, 17 MENA countries have launched hydrogen-related initiatives through national strategies, pilot projects, partnerships, or memoranda of understanding.

  • Many governments envision producing between 5 million and 10 million tonnes of clean hydrogen annually by 2040, aligning these plans with broader net-zero commitments extending to 2050.
Green hydrogen mena
Source: dii-desertenergy

Projects Are Advancing, but Challenges Remain

Despite ambitious announcements, commercial hydrogen deployment remains in its early stages. According to Dii Desert Energy, only two pilot projects are currently operational across the region. Both are located in the UAE.

DEWA Green Hydrogen Pilot Plant

The first is the DEWA Green Hydrogen Pilot Plant, which operates a 1.25 MW PEM electrolyzer. The second is the Masdar–Emirates Steel demonstration project, which uses green hydrogen to produce low-carbon steel.

By the end of 2025, only five hydrogen projects had reached financial close and moved into construction or early implementation.

NEOM Green Hydrogen Project

The flagship project remains Saudi Arabia’s NEOM Green Hydrogen Project, currently about 80% complete. Scheduled for commissioning during the first quarter of 2027, the facility will become the world’s largest green hydrogen project.

The project combines 4 GW of dedicated solar and wind power with 2.2 GW of electrolyzers to produce approximately 1.2 million tonnes of green ammonia annually, creating one of the largest renewable-powered industrial complexes ever developed.

saudi arabia neom
Source: IEF

Ambition Is High, but Execution Must Accelerate

While long-term goals remain impressive, implementation has not kept pace.

Current estimates place MENA’s planned electrolyzer capacity between 200 GW and 230 GW, although much of this is concentrated within a handful of mega-projects. The 17 largest projects alone account for approximately 118 GW of proposed capacity.

Developers are also scaling back some of the earliest announcements to improve project feasibility. Mauritania’s Project Megaton Moon, for instance, was originally proposed at 35 GW but has since been reduced to 6 GW, reflecting more realistic financing and construction timelines.

Regional hydrogen strategies still target around 10 million tonnes of annual clean hydrogen production by 2030, with green hydrogen expected to contribute the majority of output.

However, progress has been slower than expected. Limited final investment decisions, financing delays, regulatory uncertainty, and infrastructure challenges have pushed back several projects. As each year passes without significant construction activity, achieving the 2030 production target becomes increasingly difficult.

Even so, MENA’s overall clean energy trajectory remains firmly upward. Rapid solar deployment, expanding wind capacity, competitive renewable electricity costs, and growing hydrogen investments are steadily reshaping the region’s energy landscape.

.

We Can’t Air-Condition Our Way Out of a Hotter Future

We Can’t Air-Condition Our Way Out of a Hotter Future

Beige concrete building with air conditioning units under a clear blue sky, showcasing minimalist urban architecture. by Abdelrhman Magdy via Pexels

.

 

We can’t air-condition our way out of a hotter future, says UNSW expert

UNSW Newsroom – 2 July 2026
Samantha Dunn
Samantha Dunn

A new global review argues passive cooling technology must become central to climate adaptation.

As temperatures rise around the world, air conditioning is saving lives. But a growing reliance on it is also placing unprecedented pressure on electricity grids, increasing greenhouse gas emissions and making cities even hotter.

A global review led by UNSW Sydney’s Professor Mat Santamouris AM – an expert in innovative heat mitigation technologies and strategies for cities, opens in a new window – argues that keeping buildings cool without relying solely on air conditioning will be critical for adapting to climate change.

Published in Nature Reviews Clean Technology, opens in a new window, the review examines the latest advances in passive cooling technologies, from emerging materials for radiative, evaporative and combined radiative/evaporative cooling to sophisticated solar control systems and personalised intelligent ventilation technologies that can help buildings shed heat without consuming electricity.

Prof. Santamouris says passive cooling should no longer be viewed as a niche architectural feature, but as essential infrastructure for a warming world, opens in a new window.

“Air conditioning saves lives and will remain essential during extreme heat,” he says. “But we cannot air-condition our way out of climate change. If every building depends entirely on mechanical cooling, we create enormous pressure on electricity systems while adding even more heat to our cities.”

 Summer street scene in Firenze, Italy, during a heatwave. People walking under the strong Tuscan sunlight with refreshing water mist in the urban atmosphere.

As European cities experience some of their hottest recorded temperatures over recent weeks the question about how to keep populations cool is front of mind.Photo: Richard Vanlerberghe / Unsplash

Demand for cooling is soaring

The review highlights the rapid growth in cooling demand worldwide, opens in a new window. Global electricity consumption for cooling has reached almost 10 per cent of total electricity use, opens in a new window, with around 10 new air conditioners sold every second, opens in a new window. By 2050, the number of residential air-conditioning units is projected to increase to almost 5.6 billion worldwide, opens in a new window.

At the same time, billions of people living in hot climates still lack access to affordable cooling, opens in a new window.

Cooling buildings without relying on air conditioning

Passive cooling technologies, opens in a new window offer a way to reduce energy demand while making buildings safer and more comfortable, particularly for vulnerable communities.

“The best cooling strategy is to stop unwanted heat entering buildings in the first place. Shading, reflective materials, opens in a new windowsmarter ventilation, opens in a new window and new cooling materials can dramatically reduce indoor temperatures before an air conditioner even needs to switch on,” says Prof. Santamouris.

Rather than replacing air conditioning, Prof. Santamouris and coauthor Dr Konstantina Vasilakopoulou from RMIT argue passive cooling should become the first layer of defence, with mechanical systems providing additional cooling only when required.

The review evaluates emerging innovative technologies, such as super-cool materials, combined radiative/evaporative coatings, sophisticated external shading systems and personalised ventilation, as well as known passive cooling technologies such as reflective cooling materials that release heat directly into the atmosphere and hybrid cooling systems that combine multiple passive approaches.

Integrating passive cooling strategies with efficient building design could reduce cooling demand by as much as 80 per cent, opens in a new window in hot climates while lowering peak electricity demand and improving resilience during power outages, according to the review.

 

The buildings we construct today will still be standing in 2050 and beyond. They need to be designed for the climate they will experience, not the climate we had in the past.
Professor Mat Santamouris AM

Cooler cities, healthier communities

Beyond reducing energy use, the researchers say passive cooling can make cities healthier and more resilient as extreme heat events become more frequent.

Keeping buildings and neighbourhoods cooler can reduce the risk of heat-related illness, ease pressure on electricity networks during heatwaves and improve comfort for people who cannot afford to run air conditioners. Passive cooling measures can also help buildings remain safer during power outages, when mechanical cooling systems are unavailable.

Prof. Santamouris says the greatest benefits will come from combining passive cooling with efficient air conditioning, rather than treating them as competing approaches.

“There is no single solution to keeping cities cool. We need a whole-system approach that starts with climate-responsive building design, shading and better materials, then uses the most efficient cooling technologies only when they are really needed.”

The review calls for stronger building standards and planning policies that encourage climate-responsive design, alongside investment in technologies that reduce heat entering buildings and lessen demand on electricity infrastructure as cities continue to warm.

Designing buildings for tomorrow’s climate

Buildings designed today will need to withstand a much hotter climate over coming decades, says Prof. Santamouris.

“The buildings we construct today will still be standing in 2050 and beyond. They need to be designed for the climate they will experience, not the climate we had in the past.”

In order to achieve this governments should strengthen building standards, support passive cooling technologies and improve access to affordable cooling for lower-income communities.

Prof. Santamouris says these measures could deliver significant benefits for public health, energy security and climate resilience.

“Cooling should not be a luxury available only to those who can afford rising electricity bills. Better building design can reduce costs, improve comfort and help protect the people most vulnerable to extreme heat,” he says.

.

 

[subscribe2]

.

With Renewable Energy Set to Power 45% of global electricity . . .

With Renewable Energy Set to Power 45% of global electricity . . .

A vibrant sunrise over solar panels in a misty field, showcasing renewable energy. by Magic K via pexels

.

With renewable energy set to power 45% of global electricity, led by China, Europe, US, India, where do aluminium industries stand?

Published by: AL CIRCLE – 27 April 2026

Edited by: DEBANJALI SENGUPTA

 

Renewable energy is moving from supportive to strategic role as it is set to account for 45 per cent of the global electricity generation. This marks a structural shift in how industries will be powered. China, Europe, the United States, and India are at the centre of this transformation, driven by rapid additions in solar, wind, and hydropower capacity. While these regions lead the clean energy buildout, they also represent some of the world’s most significant aluminium production hubs, where electricity remains the single most critical input cost. So, this calls for an evaluation that how far the clean power surge in these regions is translating into lower-carbon aluminium production across these major regions.

Before that assessment, the scale of the renewable buildout itself deserves attention. According to the International Energy Agency, global renewable power capacity is expected to reach 4,600 GW between 2025 and 2030, nearly double the growth recorded in the previous five-year period. Solar power will remain the dominant growth engine, accounting for 80 per cent of new renewable electricity capacity, while onshore wind, offshore wind, and hydropower will continue to provide balance and system support.

Solar energy is winning the race

At the end of 2025, cumulative global solar PV capacity was close to 2,900 GW after an addition of 647 GW of solar capacity. Together solar and wind capacity, new installation reached 814 GW, bringing global installed capacity to 4,174 GW. Individually, new installation of solar capacity grew 11 per cent Y-o-Y, while wind deployment jumped 47 per cent annually, rising from 113 GW to 167 GW. By the end of 2025, global installed wind capacity reached around 1,300 GW.

With renewable energy set to power 45% of global electricity, led by China, Europe, US and India, where do aluminium industries stand?
Source: International Energy Agency

Comparing the range of five years since 2013, solar PV-utility and PV-distributed capacity soared by 270 per cent from 438 GW (during 2013-18) to 1,621 GW (2019-24) and is expected to further leap to 3,545 GW, representing a surge of 118 per cent from the previous five-year period. During 2013-18, onshore and offshore wind capacity was at 297 GW, which grew over the next five years by 90 per cent, amounting to 565 GW. IEA projects the cumulative wind capacity to reach 872 GW by 2030, recording an increase of 54 per cent from 2019-2024.

For the global aluminium value-chain 2026 outlook, book our exclusive report “Global ALuminium Industry Outlook 2026

Iran War Could Spur Europe to Embrace Renewables

Iran War Could Spur Europe to Embrace Renewables

Solar panels and wind turbine in a snowy landscape, showcasing renewable energy sources. by Pixabay via pexels

.

Iran war could spur Europe to double down on renewables — again

.

The Mideast conflict is plunging the European Union into yet another energy crisis. EU officials are once again embracing solar and wind as a result.

By Dan McCarthy

 

The European Union is once again facing an energy crisis due to its reliance on imported fossil fuels — and is once again poised to lean into renewables to blunt the effects.

As the war in the Middle East upends global oil and gas markets, European Union energy chief Dan Jørgensen urged member states on Tuesday to build even more renewable energy, faster.

It’s an uncomfortable but familiar position for the EU. Following Russia’s invasion of Ukraine in 2022, the bloc rapidly reduced its reliance on Russian gas imports and swiftly built out new wind and solar power to cushion the blow to the region’s electricity sector.

The results speak for themselves. The European Union more than doubled its solar generation between 2021 and 2025. Wind grew at a more modest 24% over that time period, but it was already providing a higher share of the bloc’s electricity generation. Meanwhile, fossil fuel–generated electricity declined. For the first time ever, in 2025 the EU produced more electricity from wind and solar than it did from fossil fuels.

But the region has not ditched gas entirely. The EU got about 17% of its electricity from gas last year, and it imports almost all the natural gas it burns — 86% in 2024.

That means its energy system is still exposed to the historic disruption caused by the Iran war. The war has shut down liquefied natural gas production in Qatar, the world’s second-largest exporter of the fuel, for the past month. Gas prices globally and in the EU have surged as a result.

This energy shock will be messy and play out in different stages. For Europe, the most immediate and acute effects are being felt in the availability of jet fuel and diesel. But electricity costs will rise too, as nations are forced to buy much-more-expensive natural gas. In certain countries, it will also get dirtier, at least for a time — some EU nations are relying more heavily on coal-fired electricity to get them through the immediate fallout.

But over the longer term, this energy shock is likely to produce the same outcome as the previous one: an even faster transition away from imported fossil fuels and to domestic wind and solar.

© 2026 Canary Media

 

 

2025 Renewables Grew to 50% of Global Electricity

2025 Renewables Grew to 50% of Global Electricity

Clean energy wind turbine on a sunny, hilly landscape with clear blue skies. by ✨GüGü✨ via pexels

 

Exclusive: Renewables grew to almost 50% of global electricity capacity in 2025 after solar boost

Summary

  • Global renewable capacity reached 5,149 GW in 2025, up 692 GW from 2024
  • Annual renewable growth rate rose to 15.5% in 2025
  • Middle East crisis underscores fossil fuel energy security risks, says La Camera
LONDON, March 31 (Reuters) – Renewable power made up almost 50% of the world’s electricity capacity last year after a record ‌increase in solar installations, data from the International Renewable Energy Agency shared exclusively with Reuters showed on Tuesday.
As the Middle Eastern conflict has led to record monthly gains on oil markets, some in industry have lobbied for more investment in fossil fuels, but ​countries with higher renewable capacity have been insulated from the market shock, some analysts say.

The Reuters Power Up newsletter provides everything you need to know about the global energy industry. Sign up here.

“The Middle East ​crisis has, in some ways confirmed dramatically energy security is not something we can be ⁠sure of with fossil fuels,” IRENA Director-General Francesco La Camera told Reuters.
Global renewable power capacity reached a record ​5,149 gigawatts at the end of 2025, up 692 GW from 2024, the data showed.
Expansive view of solar panels in a rural landscape, showcasing renewable energy.

Expansive view of solar panels in a rural landscape, showcasing renewable energy. by Osman Arabacı via pexels

SOLAR SURGE IS BIGGEST ​CONTRIBUTOR

The growth was led by a leap in solar capacity. which grew by 511 GW in 2025 to 2,392 GW, confirming its position as the world’s largest renewable source.
The figures are far greater than the 116 GW growth in fossil fuel power capacity ​and took the share of renewables in global electricity capacity to 49.4% in 2025, up from 46.3% the ​year before, the data showed.
More than 100 countries at the COP28 climate summit in Dubai in 2023 agreed to triple renewable ‌energy ⁠capacity by 2030 as part of efforts to meet global climate targets and La Camera said last year’s additions mean the sector is closer to reaching the target.
“This 700 gigawatts means that we may be quite close in 2030 to the tripling target, not exactly the triple, but very close to it,” he said.
The data shows ​the annual growth rate in ​renewable capacity in 2025 ⁠rose to 15.5% compared with a growth rate of around 15.1% in 2024.
Renewable groups last year said meeting the target by 2030 would require annual growth of ​16.6% from 2025-2030.
New wind energy installations were 159 GW, taking the total installed capacity ​to 1,291 GW.
Capacity ⁠is a measure of the amount of power plants are able to produce but they often generate less than capacity if they are taken offline for reasons such as maintenance or refuelling, or in the case of renewables ⁠during low ​wind and sun periods.
Data from think tank Ember last year showed renewable ​energy sources generated more electricity than coal globally for the first time in the first half of 2025. In all, renewables provided 34% ​of global electricity.
It has yet to publish its full-year data for 2025.
.

[subscribe2]

.