RYSTAD UPDATE — DAMAGE, DELAYS, AND THE NEXT PHASE OF TRANSMISSION
The latest assessment from Rystad Energy provides a clearer picture of the scale and distribution of damage across the system. The figures below reflect reported estimates. The implications that follow represent our evaluation within the GITT framework.
Reported Data — Scale of Damage
- Total damage: $34B–$58B
- Oil & gas infrastructure: ~$50B
- Power, desalination, industrial: $3–8B
- Affected assets: ~60–80 facilities
The damage is broad and spans multiple layers of the system. A significant portion is concentrated in processing and conversion infrastructure, including LNG, petrochemicals, and refining.
Reported Data — Disruption Profile
Oil
- Peak disruption: up to ~10 mb/d constrained during escalation
- Ongoing impact: partial recovery with logistical friction
Gas / LNG
- Initial disruption: ~15–25% of flexible LNG capacity affected
- Persistent impairment: ~5–10% remains constrained
Processing / Inputs
- Disruptions concentrated in petrochemicals, ammonia, and fertilizers
Reported Data — Repair Timeline
- Partial restart: 1–3 months
- Functional recovery (oil flows): 3–9 months
- Complex systems (LNG, integrated hubs): 1–3 years
- Full normalization (select assets): up to ~5 years
Constraints are linked primarily to equipment availability, engineering capacity, and supply chains, rather than funding.
Our Evaluation — From Flows to Usable Output
The reported data highlights disruption across production and processing, but the more important implication lies in what the system can actually deliver. Even as oil flows begin to stabilize and headline supply appears to recover, the conversion layer remains impaired. LNG processing, petrochemicals, and fertilizer production act as bottlenecks, limiting the system’s ability to transform raw energy into usable inputs. As a result, there is a growing divergence between energy availability and input availability, with the latter becoming the dominant constraint.
Our Evaluation — Base Loss Before Growth Loss
The repair timelines suggest more than delayed expansion. They point to a reduction in current effective capacity. A portion of LNG processing remains offline, petrochemical output is reduced, and fertilizer production is constrained. This is not future capacity being postponed — it is existing output that is no longer available. The system is therefore operating below its pre-crisis baseline. Before any meaningful expansion can occur, resources must first be directed toward restoring lost capacity and rebuilding the conversion layers that underpin production. This creates a clear sequence: initial base reduction, followed by a restoration phase, and only then a return to growth.
Our Evaluation — System Reallocation Effect
The repair process introduces a secondary constraint that reinforces the initial capacity loss.
The same global supply chains and specialized resources required to rebuild damaged infrastructure are also responsible for maintaining and expanding capacity elsewhere. As these resources are redirected toward restoration, the system’s ability to recover is limited.
This has two direct consequences:
- The restoration of lost capacity is slower than expected
- New LNG projects, petrochemical expansions, and system upgrades are delayed
As a result, the system is not only operating below its prior baseline, but is also constrained in how quickly it can return to it.
The reallocation of resources does not act independently of the initial shock.
It extends the duration of the capacity loss and delays the transition to growth.
Our Evaluation — Global Impact
A reduced base in the input layer does not remain confined to energy or chemicals. It transmits directly into the broader economy. Lower availability of petrochemicals, fertilizers, and intermediate goods constrains manufacturing and agricultural output, reducing the volume of goods and services that can be produced. This creates a progressive and increasingly visible impact on GDP, not through demand destruction alone, but through physical limitations on production capacity.
The transmission is not uniform in timing. Industrial activity is impacted first, as rising input costs and reduced availability begin to compress margins and slow production. The effect on GDP follows with a lag, as these adjustments accumulate across sectors and regions.
The impact is also not symmetric. Economies with stronger purchasing power and more secure supply chains are able to maintain access to inputs, but at higher costs, resulting in inflation and margin pressure. Weaker and import-dependent economies face more direct constraints, where both price and availability become limiting factors. In these cases, the adjustment occurs through reduced output rather than higher prices alone.
As a result, the same supply shock produces divergent economic outcomes, amplifying global imbalances and reinforcing the uneven nature of the current transmission cycle.
Conclusion
The reported data confirms the scale and distribution of the disruption. The system has not lost access to energy, but it has lost part of its ability to convert that energy into usable output. This reduction in effective capacity forces the system to operate below its prior baseline, extending the recovery timeline.
The impact does not remain within the energy complex. It propagates through inputs into production, constraining output and progressively weighing on global growth. Stronger economies adjust through higher costs, while weaker ones face more direct output constraints.
Before growth can resume, lost capacity must first be restored. Until then, the system remains in a prolonged phase of reduced effective capacity and sustained inflationary transmission within the Global Inflation Transmission Tracker.
Publications
Global Inflation Transmission Tracker : Introduction (Week 7)
The Architecture of a Global Economic Crisis:
Part 2: The Hidden Layer: Petrochemicals
Part 3: When It Reaches the Real Economy
Part 5: Financial System Impact
Part 6: Early Signals: Stress Already Visible
March 15: Energy Crises – Historical Scale (open article)
March 18: Strait of Hormuz Risk: How a Middle East War Could Trigger a Global Supply Shock
March 19: RAS LAFFAN: GLOBAL ENERGY SHOCK: Part 1
March 19: Dutch TTF – Technical Forecast
March 25: Who Blinks First? The Energy War Reshaping Markets
April 3: ABU DHABI: SYSTEM STRESS EXTENDS: Part 2
Tags:
#StraitOfHormuz #MiddleEastCrisis #GlobalEconomy #SupplyChain #EnergyCrisis #OilPrices #NaturalGas #LNG #Petrochemicals #Aluminum #Fertilizers #FoodSecurity #Inflation #Stagflation #Semiconductors #Helium #Commodities #GlobalMarkets #SP500 #MarketCrash #EconomicOutlook #Geopolitics #InvestingAngles
