Energy as a target and weapon
Why energy infrastructure is the most valuable conflict target
Energy infrastructure concentrates enormous economic value in small, often isolated, difficult-to-defend locations. A single refinery, pipeline junction, or electrical substation can represent billions of dollars of economic activity and supply millions of people. This makes it simultaneously the highest-value target for adversaries and the most vulnerable aspect of modern civilisation.
5.7 M bbl/day
Abqaiq attack impact — 5% of world supply in hours
$10 B
Nord Stream infrastructure value destroyed (2022)
50%+
Ukraine power capacity damaged by mid-2024
Hormuz
26.56°N 56.25°E — 21 M bbl/day at risk of closure
Major energy conflict incidents · GPS-located
Named incidents — what happened and what it revealed
Abqaiq 2019 — the world's most vulnerable facility attacked:
On 14 September 2019, cruise missiles and drones (18 total — attributed to Iran/Houthis by USA; Houthis claimed responsibility) struck Saudi Aramco's Abqaiq processing facility (26.03°N 49.68°E) and Khurais oil field (25.08°N 48.59°E). Abqaiq processes approximately 7% of world oil supply — stabilising Arabian crude before export. The attack knocked out approximately 5.7 million bbl/day of Saudi production — the largest sudden supply disruption in IEA history, exceeding the 1973 Arab oil embargo in terms of immediate volume impact. Saudi Aramco restored output within approximately 2 weeks through extraordinary repair effort. The attack revealed: (1) A single facility can take out a disproportionate share of world oil supply; (2) Despite US$billions in air defence systems, relatively inexpensive drones and missiles could overwhelm Saudi defences; (3) Oil markets (Brent spiked ~15% on the day — the largest single-day price spike in history) recovered quickly because spare capacity existed and production was restored. Source: IEA Emergency Response Analysis 2019 · Saudi Aramco official statements.
On 14 September 2019, cruise missiles and drones (18 total — attributed to Iran/Houthis by USA; Houthis claimed responsibility) struck Saudi Aramco's Abqaiq processing facility (26.03°N 49.68°E) and Khurais oil field (25.08°N 48.59°E). Abqaiq processes approximately 7% of world oil supply — stabilising Arabian crude before export. The attack knocked out approximately 5.7 million bbl/day of Saudi production — the largest sudden supply disruption in IEA history, exceeding the 1973 Arab oil embargo in terms of immediate volume impact. Saudi Aramco restored output within approximately 2 weeks through extraordinary repair effort. The attack revealed: (1) A single facility can take out a disproportionate share of world oil supply; (2) Despite US$billions in air defence systems, relatively inexpensive drones and missiles could overwhelm Saudi defences; (3) Oil markets (Brent spiked ~15% on the day — the largest single-day price spike in history) recovered quickly because spare capacity existed and production was restored. Source: IEA Emergency Response Analysis 2019 · Saudi Aramco official statements.
Ukraine's electricity grid under systematic attack:
Russia's invasion of Ukraine has included systematic targeting of Ukraine's electricity infrastructure since October 2022 — one of the most intensive campaigns of energy infrastructure warfare documented since World War II. Russia used Shahed-131/136 drones (Iranian design), Kalibr cruise missiles, and S-300/Iskander ballistic missiles to strike thermal power plants, hydroelectric facilities, substations, and transmission lines. Key impacts: Kakhovka Dam (47.37°N 33.38°E, 334 MW) destroyed June 2023; Dnieper Hydropower Station (47.86°N 35.09°E, 1,538 MW) severely damaged; multiple thermal plants (Trypilska 50.03°N 30.79°E, completely destroyed; Burshtyn 49.22°N 24.62°E, damaged). By mid-2024, DTEK (Ukraine's largest private electricity operator) estimated approximately 80% of Ukraine's thermal generation had been damaged. Emergency repairs, reconnection to EU grid (ENTSO-E), and European energy aid have partially compensated. The campaign demonstrates: energy infrastructure attacks create civilian suffering at minimal military cost to the attacker — raising profound questions about international humanitarian law. Source: DTEK Ukraine operational reports · IEA Ukraine energy support · ENTSO-E emergency integration reports.
Russia's invasion of Ukraine has included systematic targeting of Ukraine's electricity infrastructure since October 2022 — one of the most intensive campaigns of energy infrastructure warfare documented since World War II. Russia used Shahed-131/136 drones (Iranian design), Kalibr cruise missiles, and S-300/Iskander ballistic missiles to strike thermal power plants, hydroelectric facilities, substations, and transmission lines. Key impacts: Kakhovka Dam (47.37°N 33.38°E, 334 MW) destroyed June 2023; Dnieper Hydropower Station (47.86°N 35.09°E, 1,538 MW) severely damaged; multiple thermal plants (Trypilska 50.03°N 30.79°E, completely destroyed; Burshtyn 49.22°N 24.62°E, damaged). By mid-2024, DTEK (Ukraine's largest private electricity operator) estimated approximately 80% of Ukraine's thermal generation had been damaged. Emergency repairs, reconnection to EU grid (ENTSO-E), and European energy aid have partially compensated. The campaign demonstrates: energy infrastructure attacks create civilian suffering at minimal military cost to the attacker — raising profound questions about international humanitarian law. Source: DTEK Ukraine operational reports · IEA Ukraine energy support · ENTSO-E emergency integration reports.
Houthi Red Sea attacks
Bab-el-Mandeb and the Red Sea shipping crisis (2023–2024)
Beginning November 2023, Yemen's Houthi movement (backed by Iran) began attacking commercial vessels in the Red Sea and Gulf of Aden, claiming to target ships linked to Israel in response to the Gaza war. By early 2024, approximately 60% of container shipping that normally transits the Suez Canal (29.94°N 32.55°E) had been rerouted around the Cape of Good Hope (34.36°S 18.47°E). The impact: (1) Shipping costs: Container shipping rates rose 3–5× from pre-crisis levels. (2) Journey time: Asia-to-Europe routes adding approximately 10–14 days. (3) Fuel: Longer routes burning approximately 20–25% more bunker fuel, adding to shipping emissions. (4) LNG: Qatar's Ras Laffan LNG (25.91°N 51.56°E) to Europe transits were affected. (5) Oil: While oil tankers had the option of rerouting (and the oil price impact was modest), the psychological impact on energy security was significant. US/UK naval strikes on Houthi positions in Yemen have not ended the attacks. The incident demonstrated how a non-state actor controlling a strategic chokepoint — Bab-el-Mandeb (12.58°N 43.47°E, 29 km wide, approximately 6 million bbl/day of oil) — can impose significant costs on global trade. Full chokepoint documentation: Energy Security page. Source: IEA Oil Market Report 2024 · UNCTAD Red Sea trade analysis 2024 · Kpler shipping disruption data.
Questions
Questions about energy and conflict
Does the energy transition reduce the risk of energy conflicts?
The energy transition changes but does not eliminate energy conflict risks. Conflicts it reduces: (1) Oil import dependency that motivates military presence in the Middle East — the USA's "Pivot to Asia" was partly enabled by shale independence reducing its reliance on Persian Gulf oil. (2) Revenue streams for petrostates that fund conflict — lower oil revenues could theoretically reduce Iran's, Russia's, or Saudi Arabia's ability to fund conflicts (though this is contested — lower-cost producers remain profitable even at lower prices). (3) Competition for pipeline routes — natural gas pipelines traverse politically fragile territories (Ukraine, Georgia, Turkey) creating transit dependency conflicts. As LNG replaces pipelines, this dependency decreases. New conflict risks from the transition: (1) Critical mineral competition — Atacama lithium (23.30°S 68.18°W), DRC cobalt, South China Sea energy resources could become flashpoints as clean energy demand grows. (2) Renewable geography — the best solar resources are in the Sahara, Middle East, and sub-Saharan Africa; the best wind in specific coasts and high-altitude regions. Countries with poor renewable resources may depend on electricity imports or green hydrogen imports — creating new dependencies. (3) China's dominance of clean energy supply chains (batteries, solar panels, REE processing) creates potential for technology supply weaponisation as a substitute for oil supply weaponisation. (4) Grid attacks — high-penetration renewable grids with more distributed infrastructure may be either more resilient (distributed) or more vulnerable (more attack surfaces) to cyberattacks. Net assessment: The energy transition shifts conflict risks from resource extraction and transportation chokepoints toward manufacturing supply chains and critical mineral deposits. Whether this is an improvement in aggregate risk depends heavily on how China-Western relations evolve. Source: IEA Energy Security in the Age of Clean Energy Transitions 2023 · Chatham House Energy Security · CSIS Energy and National Security.
Provenance
Attribution and citation
- Sources
- IEA Energy Security Reports · CSIS Energy Security Program · DTEK Ukraine operational reports 2024 · IEA Oil Market Report 2024 · UNCTAD Red Sea Trade Analysis 2024 · Kpler shipping data
- Cite as
- "Energy and Conflict — Infrastructure Attacks, Resource Wars and Energy Weapons", The Energy Codex, https://thecodex.expert/energy/conflict/, last updated .