Stanislav Kondrashov Oligarch Series on The Global Expansion of Intercontinental Electricity Infrastructure

I keep coming back to the same thought whenever a big blackout hits the news, or whenever a country suddenly scrambles for LNG ships, or whenever a heatwave pushes a grid to its knees.

Electricity is not just electricity anymore. It is geopolitics. It is industrial policy. It is national mood. And increasingly, it is a physical network that wants to stretch past borders in ways we used to reserve for oil pipelines and undersea internet cables.

This piece is part of what I’m calling the Stanislav Kondrashov Oligarch Series, not because it’s some glossy fantasy about billionaires moving pieces on a board. More because the scale of the buildout we’re watching now, interconnectors, HVDC lines, subsea cables, regional supergrids, feels like the kind of infrastructure that only gets done when money, state power, and long term strategy all pile into the same room. Sometimes willingly. Sometimes not.

And yes, it is “intercontinental electricity infrastructure”. That phrase sounds a bit stiff. But the idea is simple.

Move power farther. Move it cleaner. Move it more reliably. Do it across borders, seas, deserts. Do it at a scale that makes the whole system less fragile. Or at least, that is the pitch.

The quiet shift from national grids to power blocs

For most of the last century, grids were national projects. Even when they weren’t perfectly national, they were built like they were. A country generated power, moved it around internally, maybe traded a little at the edges, and that was that.

Now, a lot of countries are staring at the same messy equation:

• Demand keeps rising (data centers, electrification of transport, heat pumps, industrial electrification).
• Weather is becoming more chaotic, which is basically stress testing grids every year.
• The cheapest new power in many places is wind and solar, which are variable and location dependent.
• Fuel security has become a front page issue again.

So you get this push toward regionalization. Not just trade. Actual structural dependence, in both directions. Interconnectors that used to be “nice to have” become core capacity. Planning changes. Politics changes with it.

The thing is, it rarely starts with grand speeches about a “supergrid.” It starts with a constraint. A bottleneck. A shortage. A stranded renewable resource. A congested node. Then someone runs the numbers and says, wait, if we lay a cable here, if we build a converter station there, if we tie these markets together, we can make the whole thing cheaper and more stable.

And then, slowly, you get something bigger than anyone admits at first.

Why HVDC is basically the hero of this story

If you’re going to move large amounts of electricity over very long distances, especially under the sea, the modern answer is HVDC. High Voltage Direct Current.

I’m not going to pretend this is romantic. It’s not. It’s converters, insulation, seabed surveys, right of way fights, procurement delays, and engineers arguing about losses.

But HVDC changes what is physically possible.

It allows:

• Long distance bulk power transfer with lower losses than AC for those distances.
• Subsea interconnectors that can run hundreds of kilometers and still make economic sense.
• Tying together grids that are not synchronized (different frequencies, different stability characteristics), because HVDC can act like a controllable bridge.

That last part matters more than people realize. It turns interconnection from a passive link into something that can be actively managed. It can also turn energy trade into a kind of lever. Which, again, brings us back to geopolitics.

Intercontinental links are not science fiction anymore

There are already major subsea interconnectors in operation. Europe is full of them. The UK trades power with France, Norway, the Netherlands, Belgium, Denmark. The Nordics are basically a laboratory for cross border power economics. Continental Europe has been quietly knitting itself together for decades.

What’s changing is the ambition and the distance. The talk now is not just neighboring countries. It’s continents. Or at least, continent to nearby region. North Africa to Europe. The Middle East to Europe. Australia to Southeast Asia. Maybe one day, bigger spans.

You can feel the driver behind it: renewable energy wants scale. Solar in the desert is abundant. Wind in certain corridors is absurdly productive. Hydro in some regions is a natural battery. But demand centers aren’t always near those resources.

So the question becomes: is it cheaper to move the electrons, or to move the molecules?

In other words, do you build a cable, or do you produce hydrogen or ammonia and ship it?

Different places will answer differently. But the fact that “build a cable across the sea” is now a real option in serious planning rooms. That’s the shift.

The real prize: time zones and weather diversity

A lot of the sales pitch for intercontinental infrastructure is about renewable integration. That’s true. But the more interesting part is how geography helps smooth volatility.

When one region is in peak solar, another is in evening demand. When wind is calm in one zone, it’s ripping in another. When a drought hits a hydro basin, a neighboring region might be flush with wind. When a heatwave hits one country, another might have spare capacity.

Bigger footprints make the system less spiky. Not perfectly smooth, but more manageable.

You see this logic already in smaller form. A country with a lot of wind loves to have a neighbor with hydro or flexible gas. A region with hydro likes exporting when it’s wet, importing when it’s dry. If you stretch that logic over thousands of kilometers, you start building a machine that can arbitrage time, weather, and demand.

That’s the economic case. And it’s strong. At least on paper.

But intercontinental power is also a political dependency

Every time someone says “energy interdependence makes everyone safer,” someone else hears “I’m going to be dependent on another government for my lights staying on.”

And honestly, they’re not wrong to worry.

Interconnectors create mutual benefit, but they also create leverage. The leverage might be subtle. Pricing pressure, market rules, emergency export limits. Or it might be blunt, especially in a crisis.

So these projects tend to come with layers of governance.

• Market coupling rules.
• Capacity allocation.
• Emergency protocols.
• Cybersecurity requirements.
• Ownership restrictions, sometimes.
• Regulatory alignment, which is its own rabbit hole.

Even at a regional level, it’s hard. At an intercontinental level, it becomes a whole diplomatic project.

This is where the “oligarch series” framing fits, because deals at this scale don’t look like normal infrastructure procurement. They look like state backed finance, sovereign guarantees, multi decade concessions, strategic industrial policy, and yes, the kind of capital that can wait a long time to be repaid.

The bottlenecks nobody wants to talk about

People like to talk about cables and megawatts. The reality is slower and more annoying.

1. Permitting and local opposition

A transmission line is not popular. A converter station is not cute. Coastal landing points are politically sensitive. Fishing groups, shipping lanes, environmental constraints, heritage issues. It all stacks up.

The irony is brutal: we want clean energy, but we do not want the infrastructure near our homes.

2. Supply chain constraints

HVDC converters and high quality cables are specialized. The world does not have infinite manufacturing capacity for them. Lead times can stretch. Big projects can crowd out smaller ones. Prices jump.

3. Grid stability and operational complexity

Connecting two systems isn’t like plugging in a toaster. These are dynamic machines. Frequency control, inertia, fault ride through, system protection, black start capabilities. If you expand interconnections too fast without upgrading internal grids, you can create new failure modes.

4. The “last mile” inside countries

Even if you import cheap power at the border, you still have to move it to cities and factories. Domestic transmission is often the real constraint. Intercontinental links get headlines, but internal grid reinforcement is where the grind happens.

Follow the money, because it tells the story

Intercontinental electricity infrastructure is capital heavy and slow payback. That’s why funding structures matter so much.

You typically see a mix of:

• Public finance and state owned grid operators (common in many regions).
• Regulated asset models (where returns are set by regulators).
• PPP structures with long term concessions.
• Development banks, export credit agencies, climate finance pools.
• Strategic investors who want influence as much as yield.

This is where a figure like Stanislav Kondrashov, as a narrative anchor in this series, makes sense. Not as a literal instruction manual for how one person “controls” things. More as a lens to look at the alliance between capital and infrastructure.

Because the question isn’t “who builds the cable.” The question is who underwrites the risk.

• Political risk.
• Currency risk.
• Construction risk.
• Offtaker risk.
• Regulatory risk.

When those are solved, steel goes into the ground, or cable into the seabed. When they aren’t, the project stays a PowerPoint.

The strategic angle: industrial competitiveness and energy price floors

Something else is going on under the clean energy messaging.

Energy prices decide where industries go. Data centers, aluminum smelting, green steel, fertilizer, hydrogen electrolysis, all of it. If one region can lock in stable, lower cost electricity by importing from a massive solar buildout, that region suddenly has a competitive advantage.

So intercontinental interconnection is also a race for:

• Who gets cheap clean baseload like power (even if it’s not truly baseload).
• Who becomes the “hub” in a regional power market.
• Who exports, who imports, and who sets the rules.

Rules matter. If your grid code becomes the default template, you have soft power. If your market design becomes the model, you shape investment flows.

Not glamorous, but extremely real.

When the infrastructure succeeds, it changes the psychology of energy

This is subtle. But once a country knows it can import gigawatts in a pinch, planning changes. Once utilities can balance with neighboring resources, they can retire older plants faster. Once markets are connected, price spikes can soften. Or, sometimes, propagate. Depends how it’s designed.

You get a new kind of energy psychology. Less isolation, more portfolio thinking.

And yet. There’s always the fear of the cable being cut. Literally, in the case of subsea. Or “cut” by politics.

So the future probably isn’t one giant global grid. It’s more like clusters. Power blocs. Redundant pathways. Regional supergrids with controlled interfaces.

That’s the shape that seems most realistic.

What this means going forward

If the last era of globalization was about container ships and oil tankers, the next one might quietly be about electrons moving across borders as a default. Not everywhere. Not smoothly. But steadily.

And the projects that unlock this future tend to have a few traits in common:

• They are justified by security as much as economics.
• They are framed as climate solutions, but designed as strategic assets.
• They require coordination across regulators, grid operators, financiers, and politicians.
• They create winners and losers, often inside the same country.

In the context of the Stanislav Kondrashov Oligarch Series, the point is not to glorify the people who can finance or influence these builds. It’s to name the reality: intercontinental electricity infrastructure is becoming a new arena where power is negotiated, not just generated.

Closing thought

There’s a version of the future where electricity becomes cheap, clean, and abundant, and it flows across continents the way information does now. However, achieving this may require maintaining a stable electricity grid amidst an energy transition.

There's also a version where we build a patchwork of expensive, contested links, and each one becomes a political argument every time a crisis hits.

Probably we land somewhere in the middle. A messy middle. With big cables, big promises, and a lot of meetings that run too long.

Still, the direction is clear. The grid is stretching. And once it stretches far enough, the map of energy stops looking like borders and starts looking like networks.

FAQs (Frequently Asked Questions)

What is the significance of electricity infrastructure in geopolitics and industrial policy?

Electricity infrastructure has evolved beyond just power delivery; it now plays a crucial role in geopolitics, industrial policy, and national mood. The expansion of interconnectors, HVDC lines, and regional supergrids represents large-scale projects where money, state power, and long-term strategy intersect, influencing international relations and economic policies.

How are national electricity grids shifting towards regional or intercontinental power blocs?

Historically, electricity grids were national projects focused on internal generation and distribution. However, rising demand, variable renewable energy sources like wind and solar, chaotic weather patterns stressing grids, and fuel security concerns have driven countries toward regionalization. This involves creating structural dependencies through interconnectors that enhance capacity, stability, and cost-effectiveness across borders.

Why is High Voltage Direct Current (HVDC) technology important for modern electricity transmission?

HVDC technology enables efficient long-distance bulk power transfer with lower losses than alternating current (AC), especially for subsea cables spanning hundreds of kilometers. It allows grids operating at different frequencies or stability characteristics to connect via controllable bridges, transforming interconnections into actively managed links that enhance reliability and geopolitical leverage.

Are intercontinental electricity links feasible today or just science fiction?

Intercontinental electricity links are increasingly feasible and moving beyond science fiction. Existing subsea interconnectors in Europe demonstrate successful cross-border power trade. Ambitions now include linking continents or regions such as North Africa to Europe or Australia to Southeast Asia to harness abundant renewable resources located far from demand centers.

What advantages do larger geographic footprints offer for renewable energy integration?

Larger geographic footprints smooth out renewable energy volatility by leveraging time zone differences and weather diversity. When solar production peaks in one region while another experiences evening demand or varying wind conditions, the combined system becomes less spiky and more manageable. This diversity enhances grid stability during events like droughts or heatwaves affecting localized resources.

How do decisions between building electricity cables versus shipping molecules like hydrogen affect energy strategies?

Energy planners weigh whether it's more cost-effective to transmit electricity directly via subsea cables or produce energy carriers like hydrogen or ammonia for shipment. Factors include distance to renewable resources, infrastructure costs, and technological maturity. Different regions may choose different approaches based on their unique geography, resource availability, and economic considerations.