Germany's electronics exports are on the rise – yet the federal government has halved its 2026 growth forecast to around 0.5 percent, citing the Iran conflict, rising energy prices, and risks along the Strait of Hormuz. Order books are full, but the conditions for semiconductor supply chains and component logistics are becoming distinctly more volatile.
For procurement, supply chain, and engineering teams, this means one thing: geopolitics is increasingly co-deciding whether established processes keep running – or whether formerly stable supply chains become bottleneck systems with critical parts.
What Helium, Rare Earths, and New Chip Fabs Mean for Your Semiconductor Supply Chain
Multiple crises are overlapping right now – with very concrete effects on electronics, semiconductor supply chains, long-term component storage, and component logistics.
The Strait of Hormuz – LNG, Helium, and Energy Prices
The escalation in the Iran conflict has turned the Strait of Hormuz into a central risk factor. A significant share of global oil and LNG traffic passes through this chokepoint; disruptions translate directly into higher energy prices, increased transport costs, and supply vulnerabilities.
Particularly critical: Qatar's LNG hub at Ras Laffan is not only a key node for liquefied natural gas – it's also central to global helium production. Qatar alone accounts for roughly 30 percent of global helium output, much of it tied to LNG infrastructure. Attacks and shutdowns there have already caused helium spot prices to temporarily double, forcing the renegotiation of supply contracts.
Helium is a critical input for:
- Semiconductor manufacturing (purging, cooling, process stability)
- Specific testing and measurement processes in electronics production
- Medical technology, especially MRI systems – where supply prioritization is increasingly unavoidable
For operators of semiconductor supply chains and long-term component storage, this means: geopolitical tensions can directly influence which processes run reliably, which test capacities are available, and how securely critical parts can be operated and stored over multi-year horizons.
Rare Earths and Japan – An Early Warning System for "Standard" Components
In parallel, China has sharply tightened export rules for certain rare earth elements and dual-use goods destined for Japan – or halted new supply contracts entirely. Japan is the world's second-largest consumer of rare earths after China, primarily for magnet production, motors, drive systems, and high-tech applications.
Japan is responding with a mix of:
- Diversifying sourcing away from China
- Developing new projects, including deep-sea extraction of rare earth-bearing sediments near Minamitorishima
- Industry-wide efficiency and substitution strategies
Experts nonetheless describe the situation as "a buffer measured in months to a few years" – not a relaxed supply environment. Europe is watching these developments closely but continues to lag behind the US and Japan on domestic raw material projects.
Rare earths don't surface in ERP systems – they show up in:
- Magnet assemblies for motors and actuators
- Sensors and power electronics
- Hybrid and electric drive systems
In European supply chains and semiconductor supply chains, these risks don't appear as "rare earth issues." They show up as:
- Extended lead times
- Allocation constraints on specific motor or sensor variants
- Sudden price moves in ostensibly standardized components
This is exactly the mechanism by which standard parts become critical parts: not because the part number changes, but because the underlying raw material comes under geopolitical pressure.
New Chip Fabs – Reshoring with an "America First" Effect
At the same time, the semiconductor map is being redrawn: TSMC, Intel, Samsung, and others are investing tens of billions in new fabs in the US and Europe, supported by programs like the US CHIPS and Science Act. The stated goal of these incentives is explicitly to strengthen domestic semiconductor supply chains, reduce dependence on Asia, and improve resilience in a crisis.
For the US, the logic is straightforward: domestic producers receive subsidies, tax incentives, and regulatory advantages – and operate under the unspoken political expectation that they'll serve the home market first in a crunch. In other words: reshoring to America doesn't mean "more security for everyone." It means more security for the US first.
In the short term, this creates additional transition risks in the semiconductor supply chain:
- New fabs need time to ramp; yields and quality don't stabilize overnight
- Designs and processes must be qualified for new production sites
- Capacity is shifting while export controls and political requirements are tightening simultaneously
Medium-term, European OEMs can benefit from additional global capacity. But they shouldn't count on being first in line when allocations tighten. Subsidized US capacity is politically and economically tied to American interests – European customers have access, but not automatic priority.
For component logistics, this means: between old and new capacity distributions, there can be periods in which specific technologies, nodes, or foundry slots become critical bottlenecks in the supply chain – even when sufficient fabs nominally exist worldwide.
Procurement and Supply Chain Move to the Front Row
None of these developments play out in government ministries first – they land in the day-to-day operations of companies. A recent analysis by Elektroniknet puts it bluntly: procurement is becoming "the geopolitical control center."
That means:
- Procurement and supply chain teams must factor in geopolitical developments, export controls, and raw material risks far more systematically than before
- Decisions on suppliers, regions, contract durations, long-term storage, and inventory strategies directly affect the crisis resilience of platforms and critical parts
- Pressure on costs, margins, and delivery performance remains high – while macroeconomic growth is weak and uncertain
Germany's Federal Government explicitly noted in its spring economic projection that the outlook is "subject to great uncertainty" – citing the Iran conflict, energy prices, and supply chain risks. The economy is running, but with audible knock.
How Geopolitics Shows Up "Down" in the Semiconductor Supply Chain
Certified standards as a foundation
For many people in engineering, platform management, or production, geopolitical topics initially feel remote. They become concrete when you work backwards:
- Helium / Hormuz → Processes & Testing, Long-Term Storage
Restrictions in helium supply directly affect specific process steps in fabs, high-vacuum and cryogenic systems, as well as testing and analysis processes. The consequences range from extended maintenance intervals to prioritization decisions ("which lines / which customers go first?") – and affect how reliably critical parts can be operated and stored over time.
- Rare Earths / Japan → Motors, Sensors, Power Electronics
Magnetic materials and specific alloys are embedded in many drive and electronics components without being perceived as a "raw materials issue" in day-to-day operations. Shortages then hit as lead time and price risk on standard components – not as a reported "raw materials crisis." Critical parts emerge, as it were, through the back door.
- Chip Relocation / TSMC → Design and Qualification Effort
New production sites mean new process specifications, adjustments to qualification procedures, and sometimes new approvals – especially in safety-critical applications. Transition periods can be more vulnerable to delays, even when the long-term goal is semiconductor supply chain resilience.
The pattern: Geopolitical changes rarely arrive as a "big red warning." They show up as many small but persistent disruptions in projects, cost structures, and part availability – precisely where component logistics and platform teams work every day.
How transparency during the chip crisis helped to better understand these effects is described in our article "Chip Crisis 2025: Transparency Over Standstill."
What Platform and Component Managers Can Do
No one can anticipate every global crisis. But companies can decide where they want fewer surprises. Three pragmatic areas:
Consciously Flag Critical Platforms
Instead of "everything is critical," a clear focus helps:
- Which platforms carry the largest revenue – or are strategically essential?
- Which product lines have long lifecycles – for example in automotive, industrial, or MedTech, where long-term storage and supply security are central?
- Where would a technical redesign be particularly expensive or slow?
These platforms deserve closer geopolitical scrutiny – especially regarding raw materials, manufacturing processes, and geographic supplier distribution.
Cluster Components – Don't Just Count Them
Rather than a "Top 100 risk list," it's often more productive to think in logical groups:
- Drive and motor components (magnets, power electronics, sensors)
- Key semiconductor groups (MCUs, power devices, memory)
- Process and test infrastructure (everything dependent on specialty gases like helium)
Within these clusters, it becomes easier to discuss:
- Which parts are single-source – and therefore potentially critical parts?
- Where is there a history of allocation or unstable lead times?
- Which components caused problems in past crises – during the chip shortage or earlier helium bottlenecks?
How Component Logistics 4.0 specifically helps manage these clusters in practice is covered in our article on semiconductor supply for automotive customers.
Align Risk, Procurement, and Engineering More Closely
Geopolitics is often handled in strategy papers while engineering and platform teams fight for deadlines and unit costs in projects. The most practical step: bring these worlds closer together.
- Regular cross-functional reviews where risk, procurement, and engineering leads assess the most important platforms and critical parts
- Scenario planning: "What happens if helium costs increase by factor X, or certain materials from a specific region become restricted?"
- Feed results actively into roadmaps, dual-source strategies, long-term storage decisions, and technical variants
This is how abstract geopolitics becomes a set of concrete design, sourcing, and inventory decisions within your semiconductor supply chain and component logistics.
Our TAK model for Component Logistics as a Service is designed precisely at this interface – between procurement, supply chain, and engineering.
btv's Role in These Discussions
We can't credibly claim to deliver a complete map of every geopolitical and raw material risk in your supply chain – and right now, no one can.
What we do see across many customer projects:
- Geopolitical shocks rarely hit "at the top" first. They show up initially as disruptions in critical parts, processes, and inventories.
- Topics like helium, rare earths, or new semiconductor sites manifest as allocation shifts, bottlenecks, and unexpected cost pressure on standard components.
Our role is therefore less that of a political forecasting model – and more about:
- Working with customer teams to identify which components and platforms are most sensitive to shifts in the geopolitical framework
- Sharing experiences from other supply chains: where have investments in transparency, redundancy, component logistics, and long-term storage paid off – and where haven't they?
- Asking the questions that help avoid complacency without creating panic
More on how btv technologies thinks about component logistics can be found on our company page.
Geopolitics won't get quieter in the years ahead. But companies have more room to act than it might seem at first glance – provided they take seriously the connection between global events and local platform and component decisions. Precisely at this interface, a structured view of critical parts, semiconductor supply chains, and component logistics can make the difference.
Your Questions on Geopolitics, Semiconductors, and Critical Parts
No. The smart move is to focus on core platforms and genuinely critical parts – the ones where a failure would be especially costly or time-sensitive. The article walks through how to pragmatically identify those platforms and components, and why thinking in clusters beats evaluating hundreds of individual parts one by one.
When new, subsidized capacity comes online, US customers and US-based operations benefit first. European companies typically have access – but not automatic priority when supply gets tight. That makes it all the more important to understand your own risks in the semiconductor supply chain, rather than counting on additional global capacity to cover you.
We don't replace geopolitical analysis. What we do: we help translate the impact of helium shortages, rare earth disruptions, or capacity shifts into your component logistics reality – meaning critical parts, platforms, inventories, and processes. The goal is a clearer picture of where it's worth looking more closely, and where it isn't.
No. Automotive is an important focus – but btv works with customers across other industries as well, including industrial electronics, medical technology, and IoT. What matters is that electronic components, semiconductors, or PCBs play a critical role in your value chain.
The TAK model is designed to work across sectors. Wherever there are high availability requirements, complex supply structures, and a need for transparency across inventories and material flows, TAK can deliver real value – regardless of whether you operate in automotive or other high-tech segments.
