Full Report PDF Introduction: Energy Evolution as an Economic Transformation
The report opens by framing the energy industry as a system that evolves continuously in response to changes in technology, economics, supply conditions, and consumer preferences. Historically, the transition moved from coal to oil and then to natural gas, with renewable energy long constrained by cost and limited contribution to the overall energy mix.
That pattern is now changing. In the twenty-first century, the global energy sector is shifting toward lower-carbon sources, with wind, solar, geothermal, biomass, and other renewable technologies gaining importance. Even though coal and natural gas are still expected to supply a large share of global electricity demand through 2040, the broader direction of the market is clearly toward cleaner energy systems. The report presents renewable energy and energy efficiency as the two main pathways capable of delivering emissions reductions at the required speed and scale.
Three Pillars of the Next Energy Wave
The report identifies decentralisation, decarbonisation, and digitalisation as the three defining forces shaping the next phase of energy evolution. Decentralisation refers to moving away from a small number of large centralised plants toward a more distributed system that includes rooftop solar, combined heat and power, smaller wind assets, and hybrid systems supported by battery storage.
Decarbonisation is defined as the targeted reduction and elimination of hydrocarbon-based fuels from the energy value chain. This includes renewable power, energy efficiency measures across buildings and industry, and cleaner transport systems such as electric and hydrogen-based mobility.
Digitalisation is presented as the mechanism that makes this more dynamic energy system manageable. As generation, transmission, distribution, and end-use systems become more complex, digital tools are required to support real-time monitoring, optimization, and control across the full electricity value chain.
Global Power Generation: Capacity Growth and Fuel Mix Shifts
At the global level, the report shows that electricity generation capacity remains dominated by fossil fuel sources, especially coal and natural gas, though hydro, renewables, and nuclear continue to hold a meaningful share of installed capacity. It notes that global installed generation capacity rose from 6,213 GW in 2015 to 7,108 GW in 2020, representing overall growth of 3.1 percent CAGR over that period.
The strongest growth came from renewable energy, particularly solar and wind. Renewable installed capacity grew at 8.7 percent CAGR between 2015 and 2020, while solar alone expanded at 26.3 percent CAGR and wind at 12.0 percent. By contrast, fossil-fuel-based power generation recorded a slight decline over the same period, driven in part by the closure of coal-fired assets in Europe.
The report further notes that more than 260 GW of renewable capacity was added in 2020 alone, with over 80 percent of all new global electricity capacity additions that year coming from renewables. Solar and wind accounted for 91 percent of new renewable additions.
Global Outlook to 2040: Renewables Expand but Conventional Power Persists
Looking ahead, the report states that renewable capacity growth will continue across the next two decades. Solar PV is projected to grow more than fourfold to over 3,100 GW by 2040, while wind is expected to rise to around 1,850 GW. Battery storage is also shown as a major emerging component of the future power mix, expanding faster than any other major category.
Even with that growth, the report remains clear that the transition will not eliminate conventional fuels in the near term. Natural gas is expected to retain a major system role by supporting and complementing variable renewable generation, while coal investment remains largely stagnant and oil-based power generation continues to decline.
Global Socio-Economic Impact of Renewable Energy Investment
The report emphasizes that the economic impact of the energy transition extends well beyond project capex. Renewable energy investment is presented as a driver of employment, welfare, industrial development, and long-term GDP growth, provided countries implement a supportive and well-coordinated framework.
Globally, renewable energy jobs rose from 7.3 million in 2012 to 11.5 million in 2019. The report cites estimates that a transformed energy sector could support 122 million jobs by 2050, with 43 million of those in renewable energy alone. Construction, installation, and manufacturing are expected to dominate in earlier stages, while operations and maintenance grow more important as markets mature.
The wider macroeconomic case is also significant. The report highlights analysis showing that doubling the share of renewables by 2030 could increase global GDP by up to 1.1 percent, support more than 24 million jobs, and improve welfare. It argues that the strongest benefits will be seen in countries that build local manufacturing, services, workforce capacity, and export-oriented value chains around the technologies enabling the transition.
Examples of Broader Economic Impact
To illustrate this wider impact, the report points to examples outside the GCC. A typical 50 MW onshore wind project is shown to require large volumes of concrete, steel, specialized equipment, logistics support, and labor inputs, demonstrating how renewable energy stimulates activity well beyond electricity generation itself.
The report also cites Panama and Turkey as examples of countries benefiting from transition-linked economic effects. In Panama, higher climate ambition was linked to strong long-term economic benefits, including GDP gains and job creation. In Turkey, the expansion of wind energy contributed not just to power generation but to domestic manufacturing, export capability, and reduced dependence on imported natural gas.
The GCC Starting Point: A Fossil-Based System Under Pressure to Evolve
The report then shifts to the GCC, describing a region with some of the world’s highest per-capita electricity consumption and emissions levels. Rising demand, population growth, industrial expansion, and climate obligations are all forcing the region to rethink how electricity is generated and consumed.
The GCC remains heavily dependent on thermal generation. According to the report, approximately 98.7 percent of the region’s installed generation capacity comes from thermal power, mainly based on natural gas and liquid fuels. At the same time, peak demand is projected to rise sharply, increasing the need for new capacity while also putting greater emphasis on efficiency and sustainability.
GCC Renewable Targets and Generation Mix Transformation
The report shows that renewable energy has moved from a negligible position to one of the main pillars of regional power sector transformation. Renewable capacity across the GCC grew from 175 MW in 2015 to 2,446 MW in 2020, representing annual growth of about 69 percent.
Based on country strategies and announced targets, the report estimates that the GCC could reach more than 105 GW of cumulative installed renewable generation capacity by 2030. If these plans are realized, renewable energy would rise from just over 1 percent of the GCC generation mix in 2019 to more than 38 percent by 2030.
The UAE is described as the regional frontrunner, while Saudi Arabia’s scale of planned capacity additions gives it a dominant role in shaping the future regional mix. Other GCC states are also contributing through utility-scale solar, rooftop PV, waste-to-energy, and selected wind projects.
Distributed Energy, Efficiency, and Hydrogen in the GCC
Beyond utility-scale renewables, the report identifies distributed energy, energy efficiency, and hydrogen as major opportunity areas. Rooftop solar, hybrid diesel-solar systems, and other distributed technologies are presented as a cumulative multibillion-dollar opportunity, supported by policy programs such as Dubai’s Shams initiative and Oman’s Sahim initiative.
Energy efficiency is described as a second critical pathway for GCC energy transition. The report notes significant energy-saving potential in buildings across the UAE and Saudi Arabia, particularly in non-residential sectors. These efficiency gains are important not only for reducing emissions but also for lowering local energy consumption, freeing hydrocarbons for export or downstream processing.
Hydrogen is presented as a strategic extension of this evolving energy system. The report argues that the GCC’s low-cost land, capital access, solar and wind resource quality, and proximity to Asian and European demand centers position the region to become a future exporter of both blue and green hydrogen. It cites estimates suggesting that hydrogen-related annual revenues in the GCC could eventually reach between US$ 70 billion and US$ 200 billion.
Challenges to Realizing the GCC Opportunity
Despite the scale of opportunity, the report does not treat the transition as automatic. It highlights structural barriers that could slow progress, including heavily subsidized electricity prices, which reduce the competitiveness of distributed solar and efficiency solutions. It also notes that high shares of renewable generation will require transmission and distribution upgrades, greater system flexibility, and broader deployment of digital tools.
This need for grid modernization is itself framed as an economic opportunity. Smart metering, load forecasting, virtual power plants, distributed energy aggregation, and digital grid solutions are all identified as emerging market segments with strong potential across the GCC.
Economic Diversification and Localization
The report places the GCC energy transition within the broader economic diversification agenda of the region. As global demand for hydrocarbons changes over the medium to long term, GCC economies must reduce their dependence on oil-linked revenues and build new industrial bases. Renewable energy, efficiency, grid modernization, and hydrogen are all presented as channels through which that diversification can occur.
Localization policies are especially important in this strategy. Several GCC countries, including Saudi Arabia, the UAE, Oman, and Kuwait, have introduced local content requirements for renewable projects. These programs are intended to attract domestic industry, strengthen supply chains, develop local technical capacity, and generate skilled employment.
The report argues that growing renewable demand can help attract manufacturers and service providers to establish operations in the region, supported by strategic geography, port access, airport infrastructure, and relatively low energy costs. These conditions could enable the GCC to serve not only domestic demand but also export markets in Asia, Africa, and Europe.
Projected Regional Benefits
The report outlines several direct economic benefits if GCC renewable plans are realized. It estimates that reduced fossil fuel use could save the region between 2.5 billion and 3 billion barrels of oil equivalent, translating into roughly US$ 200 billion to US$ 215 billion in savings depending on price assumptions. These savings could then be redirected into new projects in renewable energy or other strategic sectors such as tourism, construction, and manufacturing.
Employment creation is another major expected outcome. The report estimates that renewable implementation across the GCC could create more than 320,000 jobs, with the majority concentrated in the UAE and Saudi Arabia. Most of these jobs would initially come from construction and installation, though manufacturing and services are expected to take a larger share as markets and local supply chains mature.
Conclusion
The report concludes that energy transition is no longer only an environmental or technical agenda. It is an economic transformation with consequences for industrial development, employment, trade, investment, and long-term fiscal resilience. Globally, the transition is already reshaping power systems and investment flows. In the GCC, it is also becoming a mechanism for economic diversification and strategic repositioning.
The overall message is that the countries best placed to benefit will be those that move beyond deploying projects and instead build the broader ecosystem around the transition. That means regulations, financing, digital infrastructure, local content development, workforce training, and industrial capability. In that sense, the future energy evolution is not only about changing how power is produced, but about changing how economic value is created.
