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First publication: https://open.substack.com/pub/velinatchakarova/p/global-system-rupture 

Introduction

We are in the fourth and most severe systemic global crisis since the 2007 global financial crisis. The three preceding crises — the Financial Crisis (2007), the COVID-19 Pandemic (2020), and Russia’s war of aggression against Ukraine (2022) — each generated higher-order cascade effects that temporarily destabilised the global economic, financial, and supply chain architecture without fundamentally challenging it.

The current crisis, triggered by Operation Epic Fury on 28 February 2026, marks a qualitative system rupture. For the first time, the material foundations of the global system are being attacked simultaneously: energy, water, and food infrastructures; metallurgical and trade-policy value chains; and financial transaction systems — all affected at once, within a geopolitical environment whose institutional crisis-management mechanisms are already fragmented.

The primary shock is unambiguous: the global market is currently missing approximately 10–13 million barrels of oil per day, while roughly 20% of global gas exports have been disrupted. These supply shortfalls form the initial impulse of the current systemic crisis.

IEA Director Fatih Birol has stated that the current crisis is “more severe than the crises of 1973, 1979, and 2022 combined.” These shortfalls drive the central cascade effects — through energy prices, fertiliser production, agricultural yields, petrochemical products, industrial manufacturing, and ultimately fiscal and monetary stability. The crisis is therefore not only multiplicative but also energy-induced and systemically amplified.

THE FOUR SYSTEMIC WORLD CRISES: COMPARATIVE ARCHITECTURE

 

Source: Velina Tchakarova, FACE Intelligence

The Global System Rupture

The concept of global system rupture is not a metaphor — it is a precise analytical category. It designates a tipping point: the moment at which the global system transitions from a strained but still adaptive condition into structurally irreversible fragmentation.

This concept differs fundamentally from classical risk and crisis analysis, which implicitly assumes that an affected system preserves its core structures and can return to a prior equilibrium once a shock subsides. Global system rupture describes the opposite: a state in which several simultaneous structural failures exceed the stress tolerance of the institutional architecture. Once this point is reached, a return to the previous system configuration is no longer possible. The system can no longer be stabilised — it can only be replaced.

The possible successor states are limited: either a bifurcation of the global system into two competing order spaces, or the emergence of an unstable multipolar equilibrium with at least three equally powerful centres of power — alongside the United States and the China–Russia axis.

The theoretical foundation of this approach lies in complexity and systems theory, as well as in Nassim Nicholas Taleb’s work on the dynamics of cascading events in complex systems. Central to this is the recognition that systemic risks are non-linear and largely resist conventional probability models.

Building on this, the Simultaneity Framework extends this perspective to geopolitical strategic foresight. The focus is on identifying the conditions under which multiple cascade sequences — military, economic, trade-policy, fiscal, commodity-related (energy and agricultural), water-related, nuclear-related, and state-institutional — become simultaneously operative and mutually reinforcing. The decisive threshold is the moment these dynamics enter a closed feedback loop for which no external intervention lever exists.

The analytical framework aims to capture precisely this state: the moment at which the high interconnectedness of the global system reverses its function — shifting from a stabilising factor to an accelerant of systemic destabilisation.

The Arteries of the Global System

The functional arteries of the global system are its supply chains. Through them flow raw materials, energy, capital, data, and goods that sustain the world economy. Disruptions at a small number of critical nodes can therefore trigger far-reaching global effects.

One of the most important of these chokepoints is the Strait of Hormuz. Under normal conditions, it carries approximately 20 million barrels of crude oil and oil products per day — roughly one fifth of global oil consumption. Significant volumes of liquefied natural gas (LNG) also transit this route; Qatar alone supplies approximately 20% of globally traded LNG, the majority of which is shipped through Hormuz.

Alongside Hormuz, the Bab el-Mandeb strait — the southern gateway to the Red Sea — constitutes a second critical node. Approximately 5–6 million barrels of oil and oil products transit here daily, along with a significant share of global container traffic between Asia and Europe. Disruptions in this corridor frequently force vessels to reroute around the Cape of Good Hope, substantially increasing transit times and costs. Simultaneous impairment of both routes would have systemic consequences — restricting not only physical energy flows but also destabilising insurance and transport markets while amplifying existing bottlenecks across global supply chains.

Available bypass capacity is limited. Pipeline alternatives such as the Saudi East–West Pipeline to the Red Sea and the Abu Dhabi–Fujairah Pipeline can absorb only a fraction of normal transit volumes and are already operating near technical capacity limits. There is therefore little short-term reserve capacity available to fully offset large-scale maritime disruptions.

The Schrödinger Phenomenon: Two Systems Simultaneously

The analytically most consequential structural feature of the current rupture is what the framework terms the Schrödinger Phenomenon: a state in which two seemingly contradictory systemic realities are simultaneously valid. This is not a transitional phase — it is a stable structural duality that continues to intensify.

One illustration is the divergent significance of the Strait of Hormuz. For certain actors — the United States, which has substantially reduced its energy dependence in recent years — this route is less critical than it once was. For large parts of the global economy, however, it remains a central choke point, as a substantial share of global oil and LNG trade continues to flow through it. The United States could, for example, declare a military success and infer from this that permanent control of the Strait is strategically unnecessary — while simultaneously remaining exposed to the indirect and difficult-to-manage consequences of the crisis, particularly rising energy prices and the resulting inflationary pressure at home.

Concurrently, Iran could continue to exert targeted influence over the Strait through asymmetric means — temporary disruptions to shipping or strikes on energy infrastructure in the Gulf region — sustaining economic and political pressure without having to prevail in a direct conventional military confrontation. Both dynamics unfold simultaneously, and therein lies the structural challenge to overall system stability.

On 8 April 2026, the US and Iran agreed to a two-week ceasefire brokered by Pakistan. The Strait of Hormuz has not been freely open since then; according to the maritime intelligence firm Windward, it is in a state of supervised pause — vessels pass only with authorisation from the Iranian Revolutionary Guards. The ceasefire has left the price of Brent crude approximately 35% above its pre-war level. On 11 April, high-level talks took place in Islamabad between US Vice President Vance and Iranian parliamentary speaker Ghalibaf — the highest-level direct engagement between the two countries since the 1979 Islamic Revolution. After 21 hours of intensive negotiations, the talks ended without agreement — the central sticking point being Iran’s refusal to renounce nuclear weapons development. The US transmitted its “final and best offer”; Iran dismissed US demands as excessive, while both Iran and Pakistan indicated a willingness to continue talks.

Following the collapse of the Islamabad negotiations on 12 April, President Trump announced a US naval blockade of all maritime traffic entering and leaving Iranian ports, with US Central Command confirming enforcement effective 10 a.m. ET on 13 April, applied impartially against vessels of all nations. Trump simultaneously threatened that any Iranian vessels approaching the blockade “will be immediately eliminated.” Oil markets responded at once: Brent crude surged above $103 per barrel, US crude topped $104, and tanker traffic through the strait — which had marginally recovered during the ceasefire period — came to a halt again. Iran’s IRGC warned that any military vessels approaching the strait would face a “severe response,” while Iran’s parliament speaker Ghalibaf stated that Americans may soon look back on today’s fuel prices with nostalgia.

China responded on 13 April by warning that the blockade threatens global trade and runs counter to the interests of the international community. Beijing’s Foreign Ministry called for calm and restraint, urged all parties to uphold the ceasefire and resolve the crisis through diplomatic means, and confirmed that China’s existing trade and energy agreements with Iran would be honoured — signalling that the blockade’s enforcement against Chinese-flagged vessels would be directly contested. Despite the escalation, Trump stated on 13 April that the ceasefire was “holding well” and that Washington had been contacted by “the right people” regarding Iran, leaving the door to a further negotiating round formally open.

This simultaneity of contradictory realities is equally visible in the structure of global financial and energy systems. In energy system, two parallel architectures currently coexist: the established dollar-based system and growing alternative settlement mechanisms, notably yuan-denominated ones. Both process the same physical energy flows — but through different institutional channels. The existing system is not being replaced; it is being supplemented by a second system that is gaining traction in certain regions and political constellations.

Similar overlaps are visible in supply chains. Alongside the formally regulated multilateral trading system, bloc-based and security-oriented structures are emerging that operate in parallel. These systems do not merely compete — they partially reinforce one another by redirecting risk rather than eliminating it. The technology sector exhibits the same duality. Strategic decisions — such as the securing of critical raw materials — are increasingly taken within a framework of geopolitical competition and directly reshape the structure of global value chains.

Analyses that examine only one of these dimensions therefore fall short. The Schrödinger Phenomenon is not a mere difference in perception: it is a structural feature of the system itself. Multiple ordering logics coexist simultaneously, overlap, and generate additional instability precisely because of that overlap.

Two Proxy Wars, Two Systemic Risks

The DragonBear Framework describes Russia and China as actors that operate in strategic coordination across key systemic domains without entering a formal alliance. The underlying premise is clear: in Cold War 2.0, the three great powers — the United States, China, and Russia — have no incentive for direct military confrontation. The risk of nuclear conflict functions as a structural threshold that limits the use of conventional forces between peer adversaries. This threshold does not prevent conflicts; it displaces them. Contestation is increasingly occurring in the grey zone below the threshold of open warfare — in the form of hybrid warfare. Given deep global interdependence, the impact of such conflicts is today far more wide-ranging than in earlier eras. The same integration that has enabled economic prosperity simultaneously functions as an accelerant for the propagation of systemic shocks.

Against this backdrop, the wars in Ukraine and the Middle East are not merely parallel proxy conflicts — they are two simultaneously operative systemic risks that mutually reinforce each other. Since 2022, and with markedly greater intensity since 2026, they have shaped the dynamics of the global crisis through multiplicative effects. Both conflict theatres are interlocked: they absorb military, economic, and political resources; shift strategic attention; and generate feedback effects across energy, financial, and security structures. Rising energy prices may open short-term fiscal space for certain actors, while simultaneously increasing the burden on import-dependent economies and placing industrial value chains under pressure.

At the same time, a structural asymmetry is emerging. Focus on one conflict theatre inevitably reduces capacity to act in the other. Critical resources — air defence systems, precision munitions, logistical capacity — are finite and cannot be deployed in parallel without constraint. This mutual resource binding means that the two conflicts do not evolve in isolation: they reinforce one another. Every additional pressure in one theatre increases the systemic load in the other — and thereby accelerates the dynamics of the overarching global crisis.

The Triumvirate Framework: The Only Viable Exit

The United States, China, and Russia each derive short-term benefit from their current positions within the crisis. The US has degraded Iran’s military capabilities and constrained its immediate nuclear escalation options without being directly affected by oil and gas flows through the Strait of Hormuz. Russia benefits from elevated energy revenues, additional geopolitical leverage over Ukraine, and a shift in strategic attention — without being directly involved in the military escalation. China, in turn, is strengthening its role in alternative settlement structures, securing energy at favourable terms directly from Iran, and positioning itself for a greater diplomatic role in any post-war order.

However, these short-term advantages share a common limitation: they slow rather than eliminate the response capacity of the US, China, and Russia in coordinating the prevention of a system rupture. The underlying cascade — triggered by severe disruptions to energy supply — propagates simultaneously across multiple dimensions: rising energy prices, pressure on fertiliser production and agriculture, growing food insecurity, stress on water-dependent infrastructure, risks to nuclear power plant facilities, and mounting fiscal instability in particularly vulnerable economies. This dynamic reveals a clear pattern: short-term winning positions are not sustainable. Once systemic buffers are exhausted, the consequences will affect all actors equally. The system does not distinguish between winners and losers — it responds to physical and economic limits.

Against this backdrop, a minimal sequence of actions can be identified to interrupt the escalation dynamic before it becomes irreversible:

1. The United States must open the political space for de-escalation — this appears to be occurring with the current ceasefire and the first phase of peace negotiations.

2. China and Russia must signal a shared interest in Iran’s stability as a functioning state — this also appears reflected in the coordinated diplomatic and political actions of both countries.

3. Any viable solution requires credible security guarantees for Iran, backed by multiple parties — the US, China, and a number of middle powers.

4. Combat activities must be reduced synchronously rather than incrementally, in order to limit mutual distrust.

5. The reconstruction of critical energy and food infrastructure must be an integral component of any comprehensive political settlement — it must not be deferred to an undefined post-war phase.

These steps define the minimum required to interrupt the ongoing cascade. The time window is limited: agricultural cycles, fiscal stability in highly vulnerable regions, the functionality of critical infrastructure, and the stability of the global system itself all evolve along their own timelines that cannot be arbitrarily deferred. Should this window be missed, the current dynamics risk consolidating — with structural consequences that cannot be corrected without a fundamental reconstitution of the international order.

Multiplicative Cascade Effects

The underlying analytical framework identifies the system’s structure, maps the transmission channels of shocks, defines threshold conditions, and outlines a minimally viable exit sequence. What it cannot do is substitute for the central political decision required to interrupt this dynamic. That decision is the last remaining variable with genuine room for manoeuvre. All other variables are already in motion: either triggered, in a critical state, or moving towards irreversibility. Portions of the agricultural planting window have already passed irreversibly. Institutional orders have lost credibility. Alternative financial and settlement structures are simultaneously gaining institutional momentum.

At the current juncture, the cascade is simultaneously active across a substantial number of central system domains. The decisive difference from prior crises lies not merely in the number of affected areas, but in the character of their interactions: the effects are not additive but multiplicative. Each deterioration in one domain increases the vulnerability of adjacent areas, and the aggregate effect accelerates faster than isolated single-domain analyses can capture. Early warning indicators along central transmission pathways confirm this dynamic. Critical choke points in energy and transport infrastructure are operating near capacity limits; insurance and financing conditions have tightened markedly; and initial market segments are exhibiting stress levels last seen in global crisis phases. Meanwhile, interventions in trade flows are multiplying — through export restrictions on strategic goods such as sulphur and fertilisers — and infrastructural risks are intensifying, particularly in energy- and water-dependent regions.

The cascade effects follow a clear, self-reinforcing logic: disruptions to energy supply immediately raise production and transport costs, leading to bottlenecks in energy-intensive sectors such as fertiliser production, which in turn impairs agricultural yields. Food prices rise as fiscal pressure on import-dependent economies increases. This dynamic propagates across further dimensions: energy supply stress acts directly on water-dependent infrastructure — especially in regions heavily dependent on desalination — while financial stress amplifies effects further through rising refinancing costs, capital outflows, and currency pressure in vulnerable economies. Each of these effects is manageable in isolation. In their simultaneity, however, they reinforce one another and produce an accelerating system dynamic. Several thresholds have already been breached, and critical adaptation windows are beginning to close.

This is no longer a hypothetical scenario. It describes a condition that has already materialised: the transition from potential risks to real, operative systemic shifts.

 

Source: Velina Tchakarova, FACE Intelligence

The Agricultural Calendar Knows No Politics

The Agricultural Calendar Does Not Negotiate

Of all the cascading transmission pathways, the most time-critical and irreversible is the one leading from fertilisers to food production — governed by the agricultural calendar.

The Kharif planting season in South Asia — critical for rice, cotton, and pulses in Bangladesh, Pakistan, India, and Nepal — is bound to a narrow window during which fertilisers must be available. This window is currently closing. In Bangladesh, fertiliser reserves stood at approximately eleven days at the end of March and have not recovered significantly since. A large share of production capacity remains constrained by inadequate LNG supply. In Pakistan, nitrogen fertiliser output has been significantly reduced relative to seasonal norms. India is increasingly drawing on strategic reserves to cushion short-term shortages.

The decisive point is this: the agricultural calendar follows physical and biological cycles, not political timelines. Even if energy supply and transport routes stabilise in the short term, the effects persist. Consequences will materialise with time delay — but with high certainty. From the third quarter of 2026 onwards, a significant escalation of food security risks must be anticipated, regardless of when the current conflict ends or how quickly critical transport corridors are reopened.

Irreversibility: When Food Security Fails

This is the most consequential form of irreversibility within the cascade: a physical reality that cannot be undone by financial instruments, political measures, or military action.

This trajectory is already reflected in international projections. The United Nations World Food Programme anticipates a significant increase in the number of people affected by food insecurity. Particularly alarming is the rate of change: the number of acutely vulnerable people has increased substantially within a short period.

The magnitude is not shifting gradually — it is shifting discontinuously. This is the aggregated human cost of multiplicative cascade effects, triggered by interconnected second-, third-, and higher-order disruptions in the global system.

The Strait of Hormuz as Fault Line

The Strait of Hormuz is not merely an energy choke point. It is a fault line in global supply chains.

This crisis is not simply another regional conflict. It is a simultaneous shock to multiple tightly coupled systems.

The perspective presented here is that of physical supply chains. If the geopolitical significance of this crisis derives from the simultaneity of multiple system shocks, its economic significance lies in the way these shocks manifest multiplicatively through real supply chains — commodity by commodity, bottleneck by bottleneck, week by week.

From Price to Availability

The Strait of Hormuz is usually narrated as an oil story. That is correct — but it is insufficient. What we are witnessing now is not a pure price shock in energy products. It is a simultaneous failure across multiple commodity and intermediate product chains, with structural recovery delays.

By Day 35 of the analysis, six of eleven tracked chains were already in physical deficit: crude oil, LNG/gas, naphtha, aluminium, methanol, and aviation fuel. Four further chains were approaching their critical zones in close sequence: helium, urea, diesel, and — downstream — semiconductors. Even under a more favourable scenario, the median estimate for full commercial reopening of the corridor is around Day 140, approximately mid-July.

This is not a point forecast — it is the midpoint of a range. And even this magnitude refers only to the logistical and commercial resumption of traffic, not to the restoration of physically damaged infrastructure. Where major facilities have been severely struck, reconstruction timelines are substantially longer.

The decisive analytical error made by many observers is to read this crisis solely as a price event. In reality, it runs along two interlocked dimensions: price and availability. First, prices rise — the most visible system response. Shortly thereafter, physical availability deteriorates: transits become less secure, inventories decline, intermediate inputs become scarcer. And precisely that declining availability intensifies the price pressure once again. A price shock becomes an availability problem, and the availability problem becomes a sharper price shock. Those who watch only markets see only the surface. The deeper movement runs through physical availability.

Three Waves of the Crisis

The First Wave is the combination of threat, price shock, and logistical uncertainty.

As soon as the threat of attacks, mines, or military incidents becomes credible, war-risk premiums rise, shipowners and charterers grow cautious, and insurers partially withdraw or demand significantly higher premiums. The causality is important: it is not insurance that generates the shock — the perceived physical danger produces the shock first, and the insurance retreat amplifies it. In this phase, prices typically rise faster than visible physical shortfalls. Simultaneously, logistical friction increases: routes become riskier, transport more expensive, and vessels and capital more risk-averse.

The Second Wave is that of feedstock depletion and industrial availability.

Now it is not only inventories and buffers that are shrinking — material becomes physically scarce for relevant buyer groups. Helium, urea, and diesel are entering their critical zones in close sequence: helium in the first half of April, urea around mid-month, diesel extending into the first half of May. These dates do not describe exact daily forecasts, but the time windows within which tension becomes real scarcity.

The Third Wave becomes visible when the preceding waves reach end consumers.

Only then does the crisis appear in production data, goods shortages, hospital operations, reduced flight schedules, or bottlenecks in final products. For the public, the crisis often only begins here. For the supply chain itself, the root cause lies many weeks in the past. When the third wave becomes visible, the situation is no longer about prevention — it is about prioritisation, rationing, and damage limitation.

Physical Scarcity Leads to Allocation

This is where another reality — frequently underestimated — becomes critical: physical scarcity triggers allocation (rationing). Once materials, energy, or transport capacity are insufficient for all, the market does not allocate neutrally. A de facto hierarchy of needs takes over. Critical infrastructure, defence, healthcare, state priorities, and strategic industries are served first. Other sectors fall back in the queue.

Physical scarcity therefore does not simply mean “less for everyone” — it often means “still enough for some and too little for others.” This generates, within the same crisis, supplied priority sectors and disconnected normal markets. This intensifies the pressure on all non-prioritised industries further.

Why Simultaneity Changes Everything

Perhaps the most important point of this analysis, however, is a different one: it is not the sum of individual failures that is decisive, but their simultaneity. An industry can often still compensate for a single bottleneck — through inventories, price premiums, substitution, rationing, or prioritisation.

What it can compensate for only to a very limited degree is the simultaneous occurrence of multiple bottlenecks within the same operational window. This is precisely where the dynamic tips. Above four simultaneously broken chains, cascades begin to operate multiplicatively (compounding) rather than additively. Above six simultaneous breaks, aggregate damage becomes materially greater than the sum of individual losses.

In our model, Day 42–10 April — marks this inflection point (mean of a probability distribution). This is a planning threshold: from that point, the majority of simulation paths show six or more simultaneous breaks. Thereafter, countermeasures predominantly treat symptoms, not causes.

This is also why many countries will misread the crisis. They look at reserves and infer security from them. But reserve levels alone do not determine resilience. What is decisive is the structure of exposure.

A closer examination of available buffers and exemptions makes this clear: beyond shared strategic reserves, national stockpiles vary enormously in depth, and selective transit corridors and special arrangements distribute the shock unevenly across countries and sectors. There is therefore no single global supply condition — there are highly differentiated national crisis profiles.

Bangladesh and Pakistan tip early. South Korea appears buffered on crude oil, and then potentially enters crisis via naphtha. Taiwan is exposed through helium and chip manufacturing. Europe suffers immediately through prices and later through winter storage replenishment. China, through exemptions and floating storage, is strategically better positioned. Reserve levels are therefore only one variable — the structure of dependency is at least equally important.

Hidden Dependencies in Supply Chains

One of these important variables is LNG. In a dependency analysis, LNG carries the highest dependency score for other commodities and petrochemical intermediates. The logic is clear: LNG is not only energy — it is simultaneously feedstock for methanol and urea, an energy source for aluminium smelters, and the basis for helium as a co-product. When LNG is disrupted, multiple chains are hit simultaneously. This explains precisely why the crisis does not propagate linearly but destabilises multiple industrial levels in parallel.

The second hidden dependency lies in the semiconductor chain. The known risk is helium. Less well known is that force majeure declarations on ADN, HMD, and adipic acid have opened a second path: Nylon 6,6. This material is used in FOUP wafer carriers — where wafers are transported in the production flow of major semiconductor manufacturers. The analysis indicates that failure in this channel can significantly advance semiconductor stress in time, making it operative earlier than the better-known helium path alone would suggest.

The third hidden coupling lies between urea and diesel — and is possibly the most seriously underestimated. Heavy diesel trucks require Ad Blue (a urea solution) to operate their SCR systems. No Ad Blue means trucks stop. Simultaneously, agriculture runs on diesel — as does the fertiliser application process. Urea scarcity therefore impedes transport. Diesel scarcity prevents fertiliser spreading and harvesting. When both time windows overlap, the food cascade becomes multiplicative.

Early Warning: How to Recognise the Shock as It Materialises

The speed of force majeure declarations is a very early indicator of real physical breaks. On the naphtha path, the peak of force majeure declarations fell precisely within the time window the model projected for the break. Moreover, actual production force majeures in Europe arrived several days earlier than initially expected. For Wave 2 and Wave 3, this means: those who wait for regulatory or institutional summaries are systematically too late. Those who want to stay ahead must observe the right early warning indicators directly.

Reopening Is Not Restoration

The assumption that ceasefire equals reopening is structurally false. Five sequential phases must be modelled before full commercial normalisation becomes possible: mine clearance; return of insurance and reinsurance capacity; fleet release; port clearance; and schedule reset.

This produces a window of four to eight months, with a median around Day 140 for commercial reopening. But these 140 days describe only the logistical-commercial component of recovery. They say nothing about how long physical damage to facilities, export terminals, liquefaction infrastructure, or smelting capacity requires. Where major energy or industrial facilities have been damaged, reconstruction and recommissioning run on entirely different timelines. Logistical reopening is not the same as economic or industrial normalisation.

Multiple Physical Deadlines

This is precisely why decision windows are so important. Within a matter of days, several physical deadlines are closing: helium contracts for medical supply; LPG substitution in European crackers; a joint European helium procurement; the prior decision on allocation between MRI systems and semiconductor manufacturing; the activation of cross-sector response protocols; and emergency procurement of urea. These are not political preferences — they are physical and logistical deadlines. After they expire, measures either become impossible, far more costly, or ineffective for the 2026 planning horizon.

What the Analysis Does Not Capture

This model also has its limits. It likely overstates absolute severity in part, because demand destruction has not been fully modelled. There are also uncertainties in duration and scenario evolution. Simultaneously, the directional signal is robust. The analysis shows high directional accuracy, a largely physically grounded force majeure basis, and clearly identifies which signals would change the situational assessment. Those who take a more optimistic view should specify exactly which physical mechanism relieves pressure on the system.

Interim Assessment

Currently, virtually all early warning indicators of this transition are triggered or in the critical zone. The implication is threefold:

1. This crisis is structurally unprecedented and cannot be managed with the instruments of previous crises.

2. Global system rupture remains a hypothetical scenario — but one that could be confirmed by an immediately imminent threshold crossing.

3. System stabilisation requires coordinated geopolitical intervention by the United States, China, and Russia. Such coordination is absent to date, as all three actors have short-term strategic incentives to externalise adjustment costs and defer decisions — until systemic buffers are irreversibly exhausted.

In this context, middle powers have an operative key role. They are the only actors currently capable of short-term action to secure functional stability: by establishing robust dialogue formats and actively stabilising critical commodity and raw material flows — particularly energy commodities, fertilisers, and food. Without such interventions, the current crisis will with high probability continue to deepen and accelerate along existing cascade pathways.

Key conclusions

 
  • This crisis is not merely an energy shock — it is a supply chain shock with multiple simultaneously broken commodity and intermediate product chains.

  • The real danger lies not in individual bottlenecks but in their superimposition.

  • Price and availability must always be analysed jointly.

  • Physical bottlenecks almost always trigger allocation — and with it an implicit hierarchy of needs.

  • A ceasefire does not automatically restart the recovery timelines of insurance, logistics, chemicals, agriculture, and industry.

Even once commercial passage is restored, physical damage to infrastructure can continue to constrain real recovery for an extended period.

This is the true lesson of Hormuz. Geopolitics is often described as a projection of power. In reality, it is decided in the material world: in port windows, in inventory runways, in feedstocks, in insurance coverage, in fertiliser spreading, in carrier gases, in flight schedules — and in the question of which chains break simultaneously.

Why We Must Now Abandon the Illusion of Control and Act in a Decentralised Manner

The global system rupture resembles a tsunami: the “receding sea” is visible in the form of price increases and transport delays. Yet in the background, massive waves are already building — waves that are frequently not yet recognised. Due to a lack of relevant prior experience, weak signals are often misinterpreted. In complex environments, strong signals frequently arrive too late, in part because time-delayed effects are systematically underestimated.

The Trap of Linear Thinking in Complex Systems

In highly interconnected systems, too many positive feedback loops give rise to unpredictable emergence effects. Small causes can produce enormous and unforeseeable impacts. Our linear “either-or” thinking systematically underestimates the damage potential of such network effects. Furthermore, collapse in complex systems is not a malfunction — it is a design feature, enabling renewal. In the absence of relevant experience, there is a tendency to avert one’s eyes and fail to recognise phase transitions that have already occurred.

Pure resilience — in the sense of resistance — therefore falls significantly short in this crisis. The disruptions should be used as an opportunity to adapt and grow in response to rapidly changing conditions, which requires a which requires a readiness to adapt quickly.

Symptom-suppression measures — such as fuel-price caps — obscure problems and shorten adaptation windows. We therefore need a shared new picture of reality. Further concealment or downplaying only reduces the space for action. This applies not only to organisations and companies, but also to the population at large. People can be trusted with the truth, even when we currently have only a very incomplete picture of it. Pseudo-security and security illusions assuredly do not contribute to a resilient and adaptive society.

Even if potential supply shortfalls affect Europe less severely than countries in Asia or Africa, the consequences will almost certainly be felt through indirect effects — goods shortages, economic and social dislocations, rising inflation, or potential refugee movements. The earlier we adjust, the smoother adaptation will be.

Creating Space and Buffers

To manage rising uncertainty, we must above all create space and buffers. This means defining new priorities and drastically reducing bureaucracy and other measures that do not contribute to addressing the emerging and anticipated problems. In many domains, short-term dedicated organisational capacity will additionally be needed — both to establish an early warning system and to respond to changes in a timely manner. At the same time, where still possible, material buffers should be built.

Possible Strategies for the Economy

Maintaining critical infrastructure and basic supply now has the highest priority. This will require prioritisation when full capacity can no longer be guaranteed or supply chains fail. When physical shortfalls occur, rapid rationing is necessary. The better we prepare for this, the fewer unforeseen and unconsidered consequences there will be.

Companies should establish an early warning structure and prepare for possible rationing and supply chain failures — ideally in cooperation with others, in order to deploy scarce resources more effectively and efficiently. The 4K Rule — “In a crisis, know competent people” — applies with even greater force, and these networks should now be established without delay.

Society and Population

It is now particularly important to bring the public on board and prepare it for a difficult period. The closer actual crisis events come, the narrower the room for manoeuvre becomes. On one hand, this involves general individual preparedness to compensate for short-term and temporary supply interruptions. On the other, it concerns mental preparation for a prolonged crisis phase and support in coping with the anticipated sense of powerlessness and helplessness. For this, decentralised self-help networks are above all needed. The state and state structures will not be able to resolve the consequences of these disruptions. We are all the state — and we can only manage this together. The antidote to powerlessness is self-efficacy: practised individually, collectively, and locally.

Outlook: Confidence Through Self-Efficacy and Adaptation

We cannot influence how long these external shocks will endure. What we can influence is our willingness to adapt and our shared determination to shape a positive future. This requires not only fine words, but concrete action.

We will certainly need patience, moderation, and confidence — for even such low points to pass. Early adaptation mitigates later hardships. The longing for the old, comfortable stability is understandable — but it will not return in that form. Yet, the future does not simply happen by itself. Everything within our sphere of influence can be actively co-shaped. Let us try to achieve this together.

Authors:

  • Velina Tchakarova — linkedin.com/in/velinatchakarova · foraconsciousexperience.com
  • Marco Felsberger — linkedin.com/in/marco-felsberger-resilience-and-risk-expert · resilience-engineers.com
  • Herbert Saurugg — linkedin.com/in/herbert-saurugg · saurugg.net

Zuletzt aktualisiert am 13. April 2026 um 21:35