When energy geopolitics hits your laptop

Over the past few months, the headlines have been dominated by war, drone strikes, and the prospect of triple‑digit oil prices. Buried inside those stories is a quieter shock that will shape our digital lives: the energy crisis is becoming a computing‑infrastructure crisis.

Two crises, one global supply chain

If you follow laptops and servers back far enough, you end up in diesel tanks and shipping lanes, not just chip fabs. Two converging events are setting the stage:

• Russia has banned diesel exports until at least the end of July to stabilise domestic fuel markets after refinery damage and growing shortages.
• The Strait of Hormuz - a chokepoint for a large share of global oil and roughly 20% of LNG - has been repeatedly closed or contested as US-Iran tensions escalate, with analysts warning of the biggest energy supply shock in decades.

On paper, that looks like an oil‑market story. In practice, it’s a story about the physical foundations of computing.

Computers are the end product of a long, energy‑hungry chain: mining, semiconductor fabrication, component manufacturing, global logistics, and data‑centre build‑out. Russia’s diesel squeeze tightens refined fuel for freight trucks, mining equipment and factory generators. Hormuz disruptions shake the crude and gas flows feeding grids and industrial bases in Asia and the Gulf - where much of the world’s electronics and chips are produced.

From fuel shock to fewer devices

The energy shock from the fuel crisis won’t necessarily show up as empty shelves - it will probably show up as fewer options, longer waits, and quietly cancelled refresh cycles. When fuel prices spike and supply becomes patchy, manufacturers don’t simply pay more and carry on. They change their behaviour.

Global analysis of the current crisis suggests that a prolonged Hormuz closure could push oil towards US$200 a barrel in worst‑case scenarios, with LNG flows to Asia deeply constrained and energy prices staying high well beyond any ceasefire. At the same time, Russia pulling diesel off the world market tightens supplies for transport and industry everywhere - because the modern world runs on diesel. Diesel powers most of the world's heavy freight. For example, in the US, more than 80% of all goods - imported and exported - are moved using diesel-powered trucks, trains, ships, and intermodal systems, with diesel responsible for about 90% of freight tonnage globally.

Faced with that, electronics makers are likely to:

• Ration production to higher‑margin lines: premium laptops, gaming rigs, workstations, and servers where customers can absorb price rises.
• Stretch lead times as they manage energy rationing, logistics bottlenecks, and component delays.
• Cut back low‑margin SKUs, delaying or quietly dropping budget laptops, entry‑level desktops, and niche devices.

You won’t see “computer shortage” banners outside retailers. Instead, you’ll notice narrower ranges, more “out of stock” tags on specific configurations, and a slower cadence of new model releases.

Why your next hardware refresh will cost more

The cheap, frictionless movement of chips and chassis we’ve relied on for decades is gone - at least for now. Even if silicon keeps flowing, the cost stack for computing is shifting, and it is shifting upwards.

Freight and logistics

Finished devices and components move through a logistics system built on diesel and bunker fuel. When diesel prices spike and supplies tighten, shipping rates rise, and so do road freight and air cargo costs. Manufacturing sectors are already reporting double‑digit increases in production costs as fuel and freight bills surge.

Those increases have to land somewhere: firstly in squeezed margins, then in higher wholesale prices, surcharges, and softer discounting. Retail prices for laptops, desktops and peripherals will follow.

Factory energy and backup power

Many electronics plants rely on diesel generators to bridge unreliable grids. Russia’s export ban explicitly aims to secure domestic diesel in the face of refinery damage and growing fuel shortages. Globally, tighter diesel markets make backup power more expensive and less dependable.

That translates directly into a higher energy cost per unit produced, and more unplanned downtime when running generators becomes uneconomic.

Risk premium baked into hardware

With the Strait of Hormuz repeatedly closed and only slowly reopening, analysts warn that even once tankers move freely again, returning to pre‑crisis oil and gas supply levels will take months or years as storage is refilled and infrastructure is repaired.

Insurers, shippers and manufacturers price in the expectation of future disruption. That risk premium gets baked into hardware pricing. Even when energy markets “normalise”, laptops and servers still carry the memory of this shock.

The Australian angle: 72% of businesses are already feeling it

In Australia, the energy crisis is already inside the P&L - computing is just the next domino. This isn’t a distant problem for Australian organisations. The ABS reports that 72% of Australian businesses say fuel prices or availability are negatively affecting them, with half reporting higher operating expenses driven by fuel and freight. Industry commentary describes inbound freight, energy costs and outbound distribution all rising together, squeezing margins and forcing firms to lift prices or delay spending.

For technology buyers, that shows up as:

• Higher prices for imported hardware and fewer aggressive discount cycles
• Longer lead times on fleet refreshes and project‑specific hardware
• More “equivalent substitute” SKUs offered when preferred models are constrained

The energy shock is already showing up on Australian balance sheets. The computing shock is next.

What leaders need to do now

Digital resilience is no longer just about backups and cybersecurity - it’s about energy, shipping lanes and diesel, too (and don't forget the new thing we have to consider - chokepoints). From a governance and risk perspective, the message is blunt: you cannot decouple digital resilience from energy and logistics resilience.

Here are four practical moves for executive management, including in particular CIOs and CISOs to consider:

1. Treat computing hardware as critical infrastructure

Laptops, servers and networking gear underpin AI, cybersecurity, cloud services and basic business continuity. When supply chains are exposed to chokepoints like Hormuz and export bans from major fuel suppliers, that is a critical‑infrastructure risk.

Start by mapping your key hardware dependencies:

• Where are your devices and components manufactured?
• Which sea lanes and ports do they rely on?
• How concentrated are your supplier relationships?

2. Re‑think procurement and lifecycle assumptions

For at least the next few years, refresh cycles need to be more conservative and more deliberate.

• Build longer lead times into budgets and program plans
• Embed flexibility in device standards so teams can accept equivalent SKUs and component substitutions
• Extend lifecycles where practicable, aligning refreshes with genuine business need rather than marketing cycles

Factor rising hardware and energy costs into total‑cost‑of‑ownership models for both on‑prem infrastructure and cloud commitments.

3. Integrate energy scenarios into digital strategy

Most digital‑transformation roadmaps quietly assume stable energy costs and availability. That assumption is broken. Boards should be asking:

• How do our critical workloads cope with prolonged hardware price increases and replacement delays? Or how will your cloud vendor deal with their increased hardware costs?
• How resilient are our key vendors and partners to energy and shipping disruption?
• How does our AI roadmap intersect with the energy and hardware we need to train and deploy models at scale?

Those questions belong in risk committees and strategy offsites, not just IT steering groups.

4. Use AI and analytics to mitigate, not just consume, energy

AI is both exposed to these shocks and will form part of the response. On one hand, training large models and running inference at scale are energy‑intensive and hardware‑hungry. On the other, AI‑driven optimisation can help organisations navigate constrained energy and hardware environments:

• Demand forecasting and inventory analytics for devices and spares
• Logistics and routing optimisation for hardware shipments and field operations
• Smarter workload placement to minimise compute waste and energy use in data centres

Responsible AI governance includes being explicit about the physical energy and hardware footprint of AI programs, which many folks have not even started to consider as yet.

A turning point, not a blip

If we keep treating fuel shocks as someone else’s problem, we’ll keep getting blindsided when they show up as ‘we can’t get the laptops and servers we need’.

It’s tempting to treat Russia’s diesel ban and the Hormuz crisis as temporary turbulence that will pass. The more realistic reading is that they’re signals of a world where energy and security shocks are recurring features, not rare anomalies.

For technologists, boards and policymakers, that means updating our mental models:

• Computing is not an abstract, infinitely elastic resource; it rests on vulnerable physical infrastructure
• Hardware and energy risk belongs alongside cyber, privacy and AI ethics in mainstream governance
• Digital and AI strategies need to assume volatility in energy and supply, not endlessly cheap capacity

If we get this right, the current crisis can become a catalyst for more resilient, thoughtful digital infrastructure - in Australia and across the world. If we ignore it, we’ll discover the hard way that “just‑in‑time” doesn’t work when the world runs on fuel and fragile chokepoints.