Society
The Science Story Behind Middle Eastern Oil
How ancient oceans, microscopic life, and deep geological time turned the Middle East into the world’s energy heartland — and why that matters in the era of the Iran–Israel crisis
How ancient oceans, microscopic life, and deep geological time turned the Middle East into the world’s energy heartland — and why that matters in the era of the Iran–Israel crisis
When geopolitical tensions flare in the Middle East (West Asia), global markets tremble. Oil prices surge, shipping routes become strategic flashpoints, and diplomats rush to prevent wider conflict. The recent escalation involving Iran and Israel has once again drawn attention to the region’s central role in the global energy system.
But the real story of Middle Eastern oil began long before modern politics, long before nation-states, even long before humans existed.
It began hundreds of millions of years ago — in a vast tropical ocean that once covered much of what is now desert.
The immense oil reserves beneath the Middle East are not simply a matter of luck. They are the result of a rare convergence of geological processes that unfolded over hundreds of millions of years. Scientists often describe it as a geological perfect storm: the right organisms, the right environment, the right rocks, and the right tectonic conditions.
Together, they created one of the richest hydrocarbon provinces on Earth.
When the Middle East Was an Ocean
Today the Arabian Peninsula is associated with scorching deserts and arid landscapes. But during several periods in Earth’s distant past — particularly between 300 million and 50 million years ago — much of the region lay beneath warm, shallow seas.
These seas were biologically rich environments filled with microscopic organisms such as plankton, algae, and marine bacteria. When these organisms died, their remains settled on the seafloor, forming thick layers of organic material.
Normally, dead organisms would decompose and disappear. But under certain conditions — particularly when oxygen levels are low — organic material can accumulate faster than it decays.
Over millions of years, these deposits were buried under layers of sediment such as sand, clay, and limestone. As burial continued, pressure and temperature gradually increased.
Under these conditions, the organic matter slowly transformed into hydrocarbons — the molecules that make up crude oil and natural gas.
This transformation process, known as thermal maturation, typically takes tens of millions of years.
By the time the process was complete, the remains of ancient microscopic life had become the petroleum that fuels modern economies.
The Birth of Source Rocks
In petroleum geology, the first critical ingredient for oil formation is what scientists call a source rock — a rock formation rich in organic material capable of generating hydrocarbons.
The Middle East contains some of the most productive source rocks ever discovered.
One famous example is the Jurassic-age source rock systems beneath the Persian Gulf, which produced enormous volumes of petroleum over geological time. Because these source rocks formed in stable marine environments rich in organic matter, they generated hydrocarbons in extraordinary quantities.
Once oil forms inside source rocks, it does not remain there permanently. Oil and gas molecules are lighter than water and tend to migrate upward through porous rock layers.
This migration leads to the next crucial stage in oil accumulation.
The Role of Reservoir Rocks
Oil cannot be extracted directly from source rocks in most cases. Instead, it migrates into reservoir rocks — porous formations that can store hydrocarbons.
Many Middle Eastern oil fields are located in carbonate reservoirs, particularly limestone and dolomite formations. These rocks are ideal storage spaces because they contain microscopic pores and fractures that allow fluids to accumulate and flow.
The Middle East’s geological history produced vast carbonate platforms — essentially enormous underwater limestone systems built by marine organisms such as corals and shell-forming creatures.
These formations eventually became some of the most productive oil reservoirs in the world.
In places like Saudi Arabia, reservoir rocks are so permeable that oil can flow relatively easily compared with many other parts of the world. This is one reason Middle Eastern oil is often cheaper to extract than petroleum from more complex geological settings.
Nature’s Underground Traps
Even if oil forms and migrates into reservoir rocks, it can still escape unless something traps it underground.
In petroleum geology, these traps are essential. Without them, hydrocarbons would eventually leak to the surface.
The Middle East possesses an abundance of these traps. One important mechanism involves evaporite deposits — thick layers of salt and gypsum that formed when ancient seas evaporated. These rocks act as nearly impermeable seals that prevent oil from escaping.
Another type of trap forms through tectonic folding, when geological forces bend rock layers into arches or domes. Oil migrating upward becomes trapped beneath these structures.
Over millions of years, enormous volumes of petroleum accumulated in such formations. The result: giant oil fields that contain billions of barrels of crude oil.
The World’s Largest Oil Fields
Because of this combination of favourable geological factors, the Middle East hosts several of the largest oil fields ever discovered.
Among them is the famous Ghawar Field, located in eastern Saudi Arabia. Discovered in 1948, it remains the largest conventional oil field on Earth.
Stretching over roughly 280 kilometers, Ghawar has produced tens of billions of barrels of oil since operations began.
Other massive fields exist across the region in countries such as Iraq, Kuwait, and United Arab Emirates.
Together, these reserves account for roughly half of the world’s proven oil resources.
Few other regions possess such geological abundance.
Why Oil Is Easier to Extract Here
Another reason the Middle East dominates global oil production lies in the quality and accessibility of its reservoirs.
In many parts of the world — such as shale basins in North America — extracting oil requires advanced techniques like hydraulic fracturing.
But in much of the Middle East, reservoirs are large, pressurized, and geologically simple. In some cases, early wells produced oil that flowed naturally to the surface due to underground pressure.
These favorable conditions have historically made Middle Eastern oil among the least expensive to produce globally.
This economic advantage has shaped global energy markets for decades.
The Geography of Energy
Geology alone does not explain the region’s strategic importance. Geography also plays a critical role.
Much of the oil produced in the Middle East must pass through narrow maritime routes before reaching global markets.
One of the most important of these is the Strait of Hormuz, a narrow waterway connecting the Persian Gulf to the Arabian Sea.
Roughly one-fifth of the world’s oil supply travels through this corridor.
Tankers carrying petroleum from Gulf states must navigate this passage before heading toward Asia, Europe, and North America.
Because of this, the strait is widely considered one of the most strategically sensitive shipping routes on Earth.
Any disruption there can send shockwaves through global energy markets.
Oil and Modern Geopolitics
The first major oil discovery in the Middle East occurred in 1908 in Iran, marking the beginning of a new era in global energy.
Over the following decades, vast reserves were discovered across the Arabian Peninsula.
These discoveries transformed desert economies into some of the wealthiest states in the world.
They also reshaped international politics.
Oil wealth funded massive infrastructure development, modern cities, and sovereign wealth funds. At the same time, competition over resources contributed to geopolitical rivalries, international alliances, and strategic military interests.
The Middle East gradually became the focal point of global energy security.
Today, developments in the region influence oil markets worldwide.
When tensions rise — as in the current standoff involving Iran and Israel — investors and governments immediately worry about disruptions to energy supply.
A Resource Formed in Deep Time
The story of Middle Eastern oil reminds us that modern geopolitics often rests on geological foundations laid long before human history.
The hydrocarbons that power today’s global economy were created from the remains of microscopic organisms that lived hundreds of millions of years ago.
Ancient seas nurtured these organisms. Sediments buried them. Pressure and heat transformed them into petroleum.
Then geological forces trapped the oil deep underground until modern technology uncovered it.
In this sense, the oil fields of the Middle East are time capsules from Earth’s deep past.
The Future Beyond Oil
Despite the region’s enormous reserves, the world is gradually moving toward alternative energy systems.
Renewable technologies such as solar, wind, and green hydrogen are expanding rapidly. Even many oil-producing countries in the Middle East are investing heavily in energy diversification.
Yet petroleum will likely remain an important part of the global energy mix for decades.
As long as that remains true, the geological legacy of ancient oceans beneath the Middle East will continue to influence global politics.
The tensions between Iran and Israel are shaped by many factors — ideology, security concerns, and regional rivalries. But beneath all these lies another reality: the region sits atop one of the most extraordinary geological endowments on Earth.
A resource formed in deep time continues to shape the present.
And perhaps, for some time yet, the future.
Society
How China Is Redrawing the Global Map of Critical Minerals
China’s $120bn critical minerals investment is reshaping global supply chains and strengthening its dominance in the clean energy economy.
China’s $120 billion investment surge into critical minerals is not just about securing resources—it is about shaping the architecture of the global clean energy economy. As supply chains realign, the balance of industrial power is shifting in ways that could define the next century
The global energy transition is often framed as a technological race—who will build the best batteries, the most efficient solar panels, or the most advanced electric vehicles. But beneath this narrative lies a more fundamental contest: control over the raw materials that make these technologies possible.
Lithium, cobalt, nickel, rare earths—these are not just commodities. They are the building blocks of the new industrial economy.
Over the past few years, China has moved decisively to secure them.
A recent analysis by Climate Energy Finance (CEF) estimates that China has committed more than $120 billion in outbound investment into critical minerals and metals since 2023, spanning multiple continents and resource categories.
What this report documents is not merely investment flows, but the architecture of a new global green industrial order,” says Tim Buckley, report lead author and Director at CEF.
This is not a scattered set of deals. It is a coordinated strategy—one that is rapidly reshaping the global resource landscape.
Beyond Extraction: Building a System
Historically, global resource investment followed a familiar pattern: capital flowed from developed economies into resource-rich regions, extracting raw materials for export with limited local value creation.
China’s current approach marks a significant departure.
Instead of focusing solely on extraction, Chinese firms are increasingly investing in processing, infrastructure, and industrial ecosystems within host countries—building ports, railways, clean energy systems, and enabling manufacturing capacity.
As Associate Professor of the Australia–China Relations Institute at the University of Technology, Marina Yue Zhang notes, the strategy has moved “well beyond simple resource extraction towards a more integrated model linking resource acquisition with processing, infrastructure, manufacturing, and long-term industrial partnerships.”
The result is a vertically integrated system that connects resource acquisition, refining, and industrial production into a single coordinated framework.
China already dominates many parts of this chain—accounting for roughly 90% of global rare earth refining, over 70% of cobalt processing, and around 60% of lithium processing.
The Logic of Vertical Integration
At the heart of China’s strategy is a simple economic insight: control the entire value chain, and you control the market.
By investing simultaneously in mines, processing facilities, and downstream manufacturing, China reduces its dependence on external suppliers while increasing global reliance on its capabilities.
Buckley underscores the scale and intent of this approach: China has built “a vertically integrated green supply chain spanning every continent, combining state-directed capital with private enterprise execution at a speed and scale no competitor country comes close to matching.”
For competitors, replicating this model is not just a matter of capital—it requires alignment between policy, industry, and long-term planning.
A New Partnership Model in the Global South
One of the most significant shifts in China’s strategy is how it engages with resource-rich nations.
Earlier models of foreign investment were often criticised as extractive. Today, Chinese firms are increasingly offering in-country processing, infrastructure investment, skilled employment, and technology transfer in exchange for long-term resource access.
As CEF analyst Matt Pollard explains, these are “not just mining deals, but blueprints for green industrialisation,” offering pathways for emerging economies to build domestic industries.
For many countries in the Global South, this represents a significant opportunity—but also a strategic choice.
A Multipolar Shift
China’s resource strategy is unfolding in a rapidly changing geopolitical landscape.
As Western economies adopt more protectionist measures and retreat from multilateral engagement, China has expanded its global investment footprint—particularly across emerging markets.
Buckley argues that this divergence is accelerating China’s momentum: its trajectory is “one of adaptation and acceleration, not retreat,” even amid rising geopolitical tensions.
The result is a shift toward a more multipolar global economy, where influence is distributed across multiple centres rather than concentrated in traditional Western powers.
Supply Chain Risks and Strategic Vulnerabilities
China’s growing dominance also raises concerns.
The concentration of extraction and processing capacity creates risks for global supply chains, energy security, and industrial competitiveness.
Countries dependent on these supply chains face potential vulnerabilities—from geopolitical disruptions to market imbalances.
Efforts to diversify supply are emerging, including strategic collaborations such as Japan’s partnership with Australia’s Lynas Rare Earths to secure long-term supply.
But scaling such alternatives remains a complex and time-intensive challenge.
The Limits of Protectionism
In response to China’s rise, some governments have turned to tariffs, trade barriers, and restrictive policies.
While these measures may offer short-term protection, they do little to address the underlying structural gap.
The challenge is not simply one of market access—it is one of capability.
Without investment in processing, infrastructure, and industrial capacity, alternative supply chains remain incomplete. Protectionism, in this context, risks isolating economies rather than strengthening them.
More effective responses are likely to involve strategic partnerships and targeted investments, similar to emerging collaborations in rare earth supply chains.
Implications for India and Emerging Economies
For countries like India, the evolving resource landscape presents both opportunity and urgency.
India has ambitions to become a major player in clean energy manufacturing and supply chain diversification. It has a large domestic market, growing industrial capacity, and a strong talent base.
But it faces significant gaps.
Processing capabilities remain limited. Access to critical minerals is constrained. And integration across the value chain is still developing.
To compete effectively, India will need to move beyond isolated initiatives and adopt a more coordinated approach—linking resource access, industrial policy, and global partnerships.
More broadly, resource-rich nations face a strategic choice. They can remain suppliers of raw materials, or they can leverage current demand to build domestic industries and capture greater value.
China’s model offers one pathway. Whether others can develop alternatives will shape the future of the global economy.
The New Resource Order
The transition to a low-carbon economy is not just an environmental imperative—it is an industrial transformation.
At its core lies a simple reality: technologies may evolve, but they are built on physical resources. Control those resources, and you shape the trajectory of the transition.
China’s $120 billion investment surge is a reflection of this understanding. It is not merely securing supply—it is constructing a system.
The implications are profound.
As the world moves toward net zero, the question is no longer just who will innovate, but who will control the inputs that make innovation possible.
In that contest, the contours of a new resource order are already emerging—and China is at its centre.
Society
India’s Power Future: 70% Non-Fossil Capacity by 2035-36, But Grid Challenges Loom
India targets 1121 GW power capacity by 2036 with 70% non-fossil share, but grid, storage and utilisation challenges remain, says CEA report.
India’s non-fossil power capacity is set to reach 70% by 2035-36, driven by rapid solar expansion, but grid constraints, storage gaps and utilisation challenges could shape the energy transition.
India is preparing for one of the most dramatic transformations in its energy sector, with the Central Electricity Authority outlining a future where clean energy dominates installed capacity but fossil fuels continue to underpin supply reliability.
The National Generation Adequacy Plan (2026-27 to 2035-36) presents the most detailed roadmap yet of how India’s electricity system will evolve over the next decade. It projects that India’s installed power capacity will reach 1,121 GW by 2035-36, with 70% (786 GW) coming from non-fossil sources, signalling a structural shift in the country’s energy mix.
At the same time, the report highlights a more complex reality: capacity expansion alone will not define the transition—utilisation, storage, and grid readiness will.
India Power Capacity 2035-36 to Cross 1,100 GW
India’s electricity system is expected to nearly double in scale over the next decade.
According to the report, net electricity generation is projected to rise from around 1,725 billion units today to 3,450 billion units by 2035-36, reflecting the country’s rapid economic growth and electrification push.
Solar energy is set to emerge as the dominant force in India’s power mix. Installed solar capacity alone is expected to exceed 500 GW, accounting for nearly 45% of total capacity, making it the single largest contributor to India’s energy basket.
The detailed breakdown of projected capacity includes:
- 315 GW coal
- 509 GW solar
- 155 GW wind
- 78 GW large hydro
- 20 GW gas
- 22 GW nuclear
These figures underline a system where renewables dominate capacity, but conventional sources remain critical to stability.
India Power Capacity 2035-36 vs Actual Generation Gap
One of the most important insights from the report is the divergence between installed capacity and actual electricity generation.
Despite renewables making up 70% of capacity, coal is expected to remain the backbone of electricity supply. The report projects coal will still account for 51% of total electricity generation (1,819 BU), while solar will contribute around 27% (984 BU).
This gap reflects the intermittent nature of renewable energy and the continued need for firm, dispatchable power.
As the report notes, “the source of firm power at present is predominantly coal-based generation.”
This highlights a key transition challenge: while India can rapidly build renewable capacity, replacing coal’s role in ensuring round-the-clock supply will require deeper systemic changes.
India Power Capacity 2035-36 Faces Grid Bottlenecks
While India’s renewable expansion has been rapid, the system’s ability to absorb this capacity remains constrained.
A major concern flagged in the analysis is the issue of stranded renewable capacity—power that is generated but cannot be transmitted due to grid limitations.
Vibhuti Garg, Director South Asia at the Institute for Energy Economics and Financial Analysis, said: “It is encouraging to see the national generation adequacy plan taking shape. India has made remarkable progress in expanding renewable energy capacity, with clean sources now accounting for more than 50% of installed capacity.
However, the real test lies not in capacity addition, but in how effectively this generation is utilised. Currently, over 37 GW of renewable energy capacity remains stranded—highlighting gaps in planning, integration, and grid readiness.
This underscores the urgent need to shift focus from merely adding capacity to ensuring efficient evacuation and utilisation. Strengthening transmission infrastructure and aligning it with demand centres is critical. As supply and demand increasingly diverge geographically, coordinated planning becomes essential.”
The report also notes that renewable energy generation is becoming more geographically dispersed, increasing the need for robust transmission networks to connect generation hubs with consumption centres.
India Power Capacity 2035-36 Needs Massive Storage Push
Energy storage emerges as the single most critical enabler of India’s clean energy transition.
The plan estimates that India will require 174 GW / 888 GWh of energy storage capacity by 2035-36, including battery storage and pumped hydro.
However, the current pipeline is far from sufficient:
- Only 10.6 GW of battery storage is under construction
- Additional capacity remains in tendering or early planning stages
This gap between projected need and current deployment highlights a major financing and policy challenge.
The report also emphasises that solar-plus-storage systems are emerging as an alternative, particularly for meeting peak demand during non-solar hours, but are yet to fully replace coal-based baseload generation.
India Power Capacity 2035-36 and Energy Security
The timing of the plan is significant, coming amid global energy market disruptions and geopolitical tensions.
Vibhuti Garg noted:“At a time when India remains exposed to global fuel supply disruptions due to geopolitical tensions, accelerating renewable energy integration is not just a climate imperative—it is an economic and energy security necessity.”
The report positions renewable energy not just as a climate solution, but as a strategic tool for reducing dependence on imported fuels.
EVs and Data Centres as New Demand Drivers
The plan also identifies electric vehicles and data centres as emerging sources of electricity demand.
These loads are expected to be geographically concentrated, requiring careful coordination between energy supply and demand planning.
Vibhuti Garg added: “This challenge will intensify with the rise of new demand drivers such as electric vehicles and data centres. These loads are often geographically concentrated, making it even more important to strategically plan clean energy supply in tandem with demand clusters.”
India’s power sector is entering a defining decade.
The National Generation Adequacy Plan makes it clear that the country is on track to build one of the world’s largest clean energy systems. But it also underscores that capacity alone is not enough.
The real transition will depend on:
- Grid infrastructure
- Energy storage deployment
- Demand-side planning
- Policy alignment with emerging technologies
As the report emphasises, the goal is not just to expand capacity, but to ensure a reliable, resilient, and cost-effective power system capable of meeting India’s rapidly growing electricity demand.
Society
EVs avoided oil equal to 70% of Iran’s exports in 2025
Electric vehicles avoided oil equal to 70% of Iran’s exports in 2025, reshaping global energy security amid Middle East tensions.
When tensions rise around Iran, the world braces for oil shocks. Markets react, governments worry, and the Strait of Hormuz once again becomes the centre of global attention.
But in 2025, something quietly shifted beneath this familiar cycle of crisis.
Electric vehicles avoided oil consumption equivalent to nearly 70% of Iran’s exports.
According to analysis by Ember, the global EV fleet reduced oil demand by 1.7 million barrels per day, approaching the 2.4 million barrels per day exported by Iran through the Strait of Hormuz.
This is not just a milestone for clean energy. It marks the beginning of a structural change in how the world responds to geopolitical risk.
The world’s oil vulnerability is still profound
Despite rapid technological progress, the global economy remains deeply exposed to oil shocks.
Nearly 79% of the world’s population lives in oil-importing countries, making them vulnerable to disruptions in supply and price volatility.
The costs are enormous. For every $10 increase in oil prices, global import bills rise by around $160 billion annually.
At the heart of this vulnerability lies the Middle East—and specifically the Strait of Hormuz. This narrow passage carries around one-fifth of global oil exports, while the wider Gulf region accounts for 29% of global oil supply.
The concentration of supply through such a fragile corridor makes the global economy acutely sensitive to regional instability.
“This is Asia’s Ukraine moment,” said Daan Walter, principal at Ember. “Oil is the Achilles’ heel of the global economy… Asia’s oil vulnerability has been exposed by the current crisis.”
Even oil producers cannot escape the shock
One of the most counterintuitive realities of today’s energy system is that producing oil domestically does not shield economies from global price spikes.
Oil is traded in global markets. When supply is disrupted, prices rise everywhere.
In Texas, one of the world’s largest oil-producing regions, gasoline prices increased by more than 25% following recent geopolitical tensions—in some cases exceeding rises seen in oil-importing countries.
This reflects a fundamental truth: oil dependency is a global vulnerability, not a local one.
The true cost of fossil fuel dependence
The financial burden of this dependency is immense.
Net importing countries spent approximately $1.7 trillion on fossil fuel imports in 2024, with many economies losing significant portions of GDP to energy imports.
For developing economies, the impact is even more severe. Rising prices can strain public finances, disrupt industries, and increase the cost of living.
The report highlights a stark dynamic: when supply tightens, wealthier countries can outbid poorer ones, effectively pushing them out of the market.
Energy insecurity, in this sense, is not just an economic issue—it is a question of global inequality.
EVs are emerging as a geopolitical force
Against this backdrop, the rise of electric vehicles is beginning to alter the equation.
The fact that EVs avoided oil demand equivalent to 70% of Iran’s exports is not just symbolic—it is strategic.
It shows that demand-side transformation can counterbalance supply-side risk.
“Electric vehicles are increasingly cost-competitive with gasoline cars,” Walter said. “Oil volatility means EVs are a common-sense choice for countries wishing to insulate themselves from future shocks.”
The economic benefits are already visible:
- China saves over $28 billion annually in avoided oil imports
- Europe saves around $8 billion
- India saves about $0.6 billion
These savings highlight a critical shift: energy security is moving from controlling supply to reducing dependence.
A broader shift: the rise of “electrotech”
Electric vehicles are only one part of a wider transformation described in the report as “electrotech”—a combination of EVs, solar, wind, batteries, and heat pumps.
Together, these technologies can electrify more than three-quarters of global energy demand and significantly reduce fossil fuel imports.
If deployed at scale, they could cut import dependence by up to 70%, fundamentally reshaping global energy systems.
Unlike fossil fuels, which require continuous imports, these technologies provide long-term stability. Once installed, they operate without fuel costs, price volatility, or geopolitical exposure.
As the report puts it, this is the difference between “renting energy” and “owning it.”
The Strait of Hormuz: from chokepoint to turning point
The current crisis highlights the strategic importance of the Strait of Hormuz—but it may also accelerate its decline as a central pillar of global energy security.
Asia, which imports around 40% of its oil through the strait, is particularly exposed.
But unlike previous crises, countries now have viable alternatives.
Renewable energy costs have fallen sharply. EV adoption is accelerating across both developed and emerging markets. And electrification technologies are scaling faster than expected.
The report suggests this could become a defining moment—similar to how Europe’s response to the Ukraine crisis reshaped its energy strategy.
Peak oil may arrive sooner than expected
The implications extend beyond immediate crisis management.
The International Energy Agency had projected global oil demand would peak around 2029. But recent developments suggest that peak may arrive sooner.
Electrification is not only reducing demand—it is changing expectations about the future of energy.
The report notes that demand growth forecasts have already been revised downward, with the possibility that global oil demand could plateau—or even decline—earlier than anticipated.
Crises, historically, have accelerated structural transitions. This may be another such moment.
A structural shift beneath the headlines
Geopolitical tensions may dominate headlines, but the deeper story lies beneath.
The fossil fuel system—dependent on continuous trade through vulnerable chokepoints—is becoming increasingly fragile. At the same time, the technologies needed to replace it are becoming cheaper, faster, and more accessible.
The fact that EVs alone have already offset oil demand equivalent to most of Iran’s exports signals a profound shift.
It suggests that the balance of power in global energy is beginning to move—from regions that supply oil to technologies that reduce the need for it.
The Strait of Hormuz may remain a critical artery for now. But its grip on the global economy is loosening.
And for the first time in decades, the world has a credible path to reduce its dependence on it.
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