The idea of transition, as a simple linear shift from fossil fuels to renewables, dominated the global energy debate for many years. However, reality has turned out to be more complicated. Egypt and other nations serve as examples of how energy transformation is a balancing act between economic necessity and climate ambition rather than a straight line. Natural gas continues to be the foundation of Egypt’s power system, guaranteeing stability and affordability in the face of growing demand, even though renewable energy sources are growing quickly. This changing narrative, which is sometimes referred to as “energy realism,” recognizes that decarbonization must continue without jeopardizing industrial competitiveness, national development, or energy security.
Egypt’s Energy Landscape
In 2023–2024, Egypt’s total inputs for electric power generation reached 37.891 million tons of oil equivalent (mmtoe). The mix was overwhelmingly fossil-fuel based, with natural gas alone supplying 29.758 mmtoe and petroleum products adding another 5.746 mmtoe, mainly in specialized off grid uses. Renewables, by contrast, contributed just 1.295 mmtoe from hydro and 992,000 tons equivalent from solar and wind combined, according to CAPMAS’ Energy Balance Bulletin.
This puts the renewable share at barely 6% of Egypt’s energy mix—far below the national targets of 42% by 2030 and over 60% by 2040.
According to these figures, Egypt’s reliance on fossil fuels remains high, making any sudden energy transition impossible. Instead, the country’s path must be gradual, balancing economic necessity with climate ambition.
Energy Realism
Egypt, as well as the rest of the world, is changing its approach from fossil fuel divestment to energy portfolio diversification. It is no longer about how fast to eliminate, but also how to maintain stability while reducing emissions. Accordingly, the energy systems are evolving through technological layering rather than the immediate erasure of existing infrastructure.
Tharwat Hassane, Petrophysical Advisor and Operational General Manager at Sahara Oil and Gas Company, tells Egypt Oil & Gas that while the world is moving toward cleaner energy and net‑zero goals, it still depends heavily on oil and gas. Fossil fuels remain essential because they provide reliable, high‑density energy and keep power grids stable, something renewable sources like wind and solar cannot fully achieve yet.
Egypt’s economy, industrial competitiveness, and export revenues remain closely linked to natural gas and petroleum activities. A rapid or poorly sequenced phase-out of fossil fuels could create several interconnected risks, including grid instability, rising electricity costs, Industrial and petrochemical slowdown, foreign currency pressure, and employment impacts across energy-intensive sectors.” Alaa Mostafa Abd elrahime, Energy efficiency and sustainability expert, told Egypt Oil & Gas.
Abd elrahime explains that “from a crisis management perspective, sudden transitions can generate structural economic shocks. Energy realism mitigates these risks by advocating for a phased and balanced transition strategy. Natural gas, for example, can function as a lower-carbon bridge fuel while renewable infrastructure, storage capacity, and grid flexibility are strengthened.”
Additionally, Hassane points out that “diversification in the energy mix will significantly reduce price volatility and geopolitical risks. This translates to a range of available prices.”
Therefore, “a resilient transition is not defined by speed alone, but by stability, affordability, and security of supply. Energy realism ensures decarbonization progresses without compromising national energy security or economic sustainability,” according to Abd elrahime.
Replacing Gas Infrastructure
Egypt’s energy system is built on decades of investment in gas‑fired power plants, pipelines, processing facilities, and industrial complexes. Replacing this infrastructure outright with new systems would require massive capital outlays at a time when Egypt is already facing fiscal pressures, for example, it is set to repay roughly $50.8 billion in foreign debt by the end of next September 2026, based on recent World Bank data.
Retiring fossil fuel assets prematurely would not only strand enormous capital but also destabilize electricity supply, industrial output, and export revenues, making full replacement economically unrealistic and potentially catastrophic. Instead of abandoning its gas infrastructure, Egypt can add low‑carbon technologies to existing systems, transforming old assets into tools for decarbonization without requiring new land, new transmission corridors, or massive capital replacement.
By the end of 2024, Egypt’s national gas network stretched 8,200 km with a daily capacity of 262 million cubic meters. (mmcm) Green hydrogen can be blended into this system at up to 20%, allowing households to use it for heating and cooking without new infrastructure. This adaptability means Egypt can begin integrating hydrogen into its energy mix while conserving natural gas, avoiding the need for costly network upgrades.
Using existing gas pipelines for hydrogen is only a temporary solution. While hydrogen can be blended with natural gas, it reacts with steel, making pipes brittle and prone to leak, a safety risk. To address this, Egypt will eventually need dedicated hydrogen infrastructure, either by reinforcing current pipelines or building new transport systems, according to the Shaf Center for Future Studies and Analysis of crisis and Conflicts.
Future Outlook
According to Hassane, Egypt can achieve energy balance through two main strategies. First, by expanding exploration campaigns supported by new tenders in areas such as the Red Sea, the Mediterranean, the Western and Eastern Deserts, and the Gulf of Suez. This would open up more exploration zones, leading to fresh discoveries and higher production. Second, by boosting output from aging wells. Many of Egypt’s wells have been operating for decades and now face challenges like declining pressure, depletion, and rising water cuts, all of which reduce production over time. Addressing these issues is essential to sustain and increase output.
Hassane noted that Egypt is currently producing about 4.1 billion cubic feet (bcf) of natural gas per day, with output expected to rise to 6 bcf per day within the next five years. This means that the country is on track to regain self‑sufficiency, supported by discoveries coming into production and the localization of emerging industries such as green hydrogen and advanced renewable energy.
Additionally, “significant upgrades are underway in wind, solar, and nuclear power plants by 2028, leading to a diversified energy mix and enabling Egypt to achieve self-sufficiency and reclaim its position as a regional energy hub,” according to Hassane, who expects that in the future a huge amount of Egypt’s natural gas production can be used in petrochemicals, fertilizers and ammonia.
Supported by the European Commission and Canada’s Cowater International, Egypt has restructured its energy roadmap to prioritize wind, solar, and low carbon hydrogen. A cornerstone of this plan is the National Low Carbon Hydrogen Strategy, approved in 2024, which aims to capture up to 8% of the global market. To fuel this growth, Egypt is leveraging the “Build, Own, Operate” (BOO) model to attract private investment, already securing 32 Power Purchase Agreements totaling 1,465 megawatts (MW).
Egypt’s energy journey is an example of energy realism in action: a practical combination of dependable natural gas, quick growth in renewable energy, and creative adjustments like hydrogen blending that make use of current infrastructure in the face of financial and international constraints. This approach protects affordability, stability, and economic growth without the risks of hurried transitions as AI-driven demand soars and decarbonization quickens. Egypt is positioned not only for self-sufficiency but also to become a resilient regional energy leader by increasing gas production, developing low-carbon hydrogen to capture global markets, and improving solar, wind, and nuclear capacities.