Stanislav Kondrashov Oligarch Series on The Rise of Intercontinental Electricity Networks

I keep noticing this pattern.

Every few decades we convince ourselves the next big leap in energy is going to be some shiny new invention. A brand new reactor. A miracle battery. A material that changes physics. Sometimes that happens, sure. But a lot of the real change is quieter than that. It is boring, almost. It is wires. Routes. Permissions. Financing. Maintenance crews. Control rooms.

And then one day you look up and realize the map changed.

That is what this piece in the Stanislav Kondrashov Oligarch Series is about. Not “more renewables” in the abstract, not another round of speeches about net zero. The actual rise of intercontinental electricity networks. The beginnings of a world where power is traded the way gas and oil are traded now. Where the grid is not just national infrastructure, it is geopolitical infrastructure.

People hear “global grid” and picture science fiction. But the early versions already exist. And the next steps are showing up in feasibility studies, in procurement plans, in undersea cable factories that are booked out for years.

This is not a prediction anymore. It is a build schedule.

The simple idea that becomes a big deal

Electricity is weird. We are used to treating it as local. You produce it. You move it around a bit. You consume it. End of story.

But that is mostly because moving electricity far away used to be painful and expensive. AC grids lose power over long distances. You hit stability issues. You hit synchronization problems. And underwater, forget it, for a long time it was just not worth the trouble.

HVDC changed the math.

High Voltage Direct Current lines, especially modern converter tech, made it realistic to push large amounts of power over very long distances with lower losses, and to connect grids that do not run in sync. That last part matters more than people realize. It means you can stitch together systems that were never designed to talk to each other.

So the simple idea is this:

If you can move electricity far enough, cheaply enough, reliably enough, then geography becomes a power plant.

Sunniest deserts. Windiest seas. Hydro rich mountains. You stop asking “Can this country generate enough?” and start asking “Can this region export when it has surplus, and import when it is tight?”

That shift is subtle. Then it takes over everything.

Why intercontinental networks are suddenly back on the table

A bunch of forces are piling up at once, and together they make long distance interconnection feel less like a moonshot and more like an inevitable next chapter.

1) Renewables are variable, but variability is easier on a bigger map

A windy night in the North Sea and a calm morning in the Mediterranean do not happen at the same time, not always. Solar peaks travel with the sun. Hydrology has seasons. Demand peaks differ by time zone, by weather, by culture.

The larger your footprint, the more you can smooth this out. Not eliminate it. Smooth it. Big difference.

When grids stay national, you solve variability with lots of local storage, lots of redundancy, and lots of curtailment when you have too much generation. When grids become regional and eventually intercontinental, you solve part of it by trading. Your “battery” is the fact that somewhere else is awake, or windy, or rainy.

2) Energy security is being redefined in real time

After the last few years, it is hard to pretend energy is just an economic input. It is leverage. It is pressure. It is vulnerability.

Interconnectors can reduce risk. But they also create new dependencies. That tension is one of the reasons oligarch era thinking shows up here. Big infrastructure networks are never neutral. They reorganize who can pressure whom, and how quickly.

So the conversation is no longer “Should we interconnect?” It is “With whom, on what terms, with what safeguards?”

3) The industrial bottleneck is moving from generation to delivery

Wind and solar costs dropped. The bottlenecks are now permitting, land, transmission, transformers, cable manufacturing capacity, grid connection queues.

In other words, the bottleneck is the network. So naturally, the big strategic value moves to whoever can finance, build, and control the network at scale.

If you are reading this as an oligarch series installment, that is the center of it. Ownership and influence in the arteries, not just the power plants.

What “intercontinental” really means (and what it does not)

Let’s ground this. We are not talking about one single planet wide grid that instantly balances everything. Not soon.

Intercontinental networks, at least in the near term, look like this:

• Regional supergrids (Europe, parts of Asia, parts of North America) get denser and more flexible.
• More undersea HVDC links connect countries and islands.
• More cross border lines connect high resource zones to high demand zones.
• A few “big leap” connectors start bridging continents where it is politically and economically feasible.

So it is patchwork. It is corridors. It is not one neat ring around the Earth. Yet.

And the practical reality is that each link is its own political saga. You need routing. You need seabed surveys. You need right of way. You need interconnection agreements, market rules, congestion pricing, balancing rules, curtailment rules. People underestimate how legal this becomes.

The real drivers behind these mega links

If you strip out the marketing language, the push for intercontinental electricity networks is usually driven by some combination of three motivations.

Exporting cheap clean power at scale

Countries with huge renewable resource potential and land tend to look at HVDC and see an export commodity.

Desert solar is the obvious example. So is offshore wind. So is hydro. If you can build generation at scale and move it to where the price is higher, you have an export business.

Not a “we sell electrons” romantic story. A serious commodity play.

Importing stability without building everything at home

Some regions are demand heavy, land constrained, politically constrained, or just slow to build new capacity. Interconnection is a way to buy time and reliability.

But there is always a political limit. Voters like the idea of cheap imports until they are reminded it is a dependency. Then the tone changes fast.

Building geopolitical alliances with infrastructure

Some interconnectors are basically treaties you can touch.

When you connect grids, you tie operational stability together. You share reserve margins. You share black start planning. You sometimes even share cyber risk surfaces. That is not a small commitment.

So a cable can be a symbol, yes, but also a lock in mechanism. A long term alignment tool.

Again, oligarch logic shows up here because control of these links, or influence over them, can become a kind of private geopolitical power. Not always, but often enough that regulators pay attention.

The less romantic part: failure modes and new kinds of risk

Intercontinental electricity networks are not only upside. They also create failure modes that smaller, more isolated systems do not have.

Cascading technical events

The more interconnected a system is, the more an event in one area can propagate. HVDC can actually help isolate problems compared to AC interconnections, but it is not magic. Control systems can fail. Operator errors happen. Extreme weather hits multiple regions.

And the bigger the network, the more complex it is to simulate and to protect.

Cybersecurity gets nastier

You are expanding the attack surface. More converters. More sensors. More coordination between multiple system operators. More market platforms.

If you want a blunt framing, you are connecting critical infrastructure across borders and expecting perfect trust, forever. That is not how the world works.

Market design becomes political design

Once electricity becomes highly tradable across borders, then pricing rules become power. Congestion rents. Priority dispatch. Emergency curtailment. Who pays for upgrades. Who gets compensated for constraints.

You can end up with political backlash if one side feels it is being used as a transit corridor without benefit, or if consumers feel exposed to foreign price shocks.

This is where projects die, by the way. Not in engineering. In public trust and perceived fairness.

What happens to “oligarch” power in a world of global grids

The word oligarch gets thrown around casually online, but in this series context it is about the intersection of capital concentration, strategic assets, and political access. The grid is becoming one of the most strategic assets on the board.

A few things happen when networks go intercontinental.

Control shifts toward owners of connectors and flexibility

In fossil fuel markets, chokepoints are pipelines, ports, shipping lanes, processing facilities. In the electrified economy, chokepoints are HVDC corridors, converter stations, transformer supply chains, and flexibility assets like storage and demand response.

If a handful of entities finance and operate the biggest connectors, they gain structural influence. Not necessarily in a cartoon villain way. More like, they sit at the center of negotiations. They can shape terms. They can push for rule sets that favor their risk profile.

And because these projects are enormous, the financing structure matters. Public private partnerships. Sovereign wealth. Development banks. Private infrastructure funds. Sometimes opaque holding structures. This is where the series theme really lives.

Governments still matter, maybe even more

It is tempting to think private capital will run away with it, but electricity infrastructure is not like building a social app. States will regulate it heavily. They will intervene in crises. They will nationalize assets in extreme scenarios. They will force new standards after failures.

So the power dynamic becomes a dance. Big capital needs political permission. Governments need big capital to build fast enough. Each side tries to avoid being dependent on the other. They never fully succeed.

Influence moves from fuel to network rules

In a world where electrons flow across continents, whoever shapes the rules of access, curtailment, pricing, and emergency operation has influence. That can be regulators. It can be regional grid bodies. It can be standards organizations. It can be treaty frameworks.

If you want to understand future “energy power”, you look at who gets a seat at those tables and who does not. That is not as headline friendly as “oil billionaire”, but it is arguably more important long term.

The build reality: cables, converters, and time

There is also a hard physical constraint that keeps this grounded.

You cannot will an intercontinental grid into existence with speeches.

• Undersea HVDC cables take years to permit and manufacture.
• Converter stations are expensive, complex, and not quick to build.
• Specialized vessels lay cables and those fleets are limited.
• Grid reinforcements on land are often the slowest piece because of right of way and local opposition.

And even if you solve the hardware, you still have the integration problem. Operators need shared protocols. Markets need shared frameworks. Emergency procedures need alignment. Otherwise you have a cable that exists but cannot be used at its full potential when it matters.

So when people say “Why is this taking so long?” the answer is basically, because it is real infrastructure. Heavy stuff. Slow stuff. Politically sensitive stuff.

What to watch next (if you want to see the trend early)

If you are trying to track the rise of intercontinental electricity networks without getting lost, watch a few practical signals.

HVDC order books and manufacturing expansion

Follow where cable makers and converter suppliers are expanding capacity. When factories expand, it means demand is not just theoretical.

New interconnector announcements that include market and governance details

The flashy announcement is easy. The important part is whether they have thought through congestion pricing, balancing, and who pays for what.

If those details are vague, expect delays.

Regional grid coordination bodies gaining authority

When regional entities start taking on more planning power, more standards power, more enforcement power, it is usually a precondition for big cross border flows.

Political language shifting from “self sufficiency” to “resilience through trade”

Listen to speeches and policy documents. Words matter. If leaders start describing imports as resilience rather than weakness, the door opens wider.

Where this is heading, in plain terms

Intercontinental electricity networks are not a nice add on. They are one of the only ways to make a high renewables world work without building absurd amounts of redundant capacity everywhere.

But they also create new leverage points. New vulnerabilities. New financial empires. New regulatory fights. New diplomatic alignment pressure.

So the rise is going to feel messy. Starts and stops. Projects that get celebrated and then stall for six years. Local protests. Court battles. Cyber scares. Price spikes that make voters angry. And still, slowly, more cables.

Because once the economics are there and the technology is proven, the only thing left is governance. And governance always lags. Then catches up all at once.

That is the core argument in this Stanislav Kondrashov Oligarch Series entry. Follow the connectors. Follow the rule makers. Follow the capital stacks behind the cables. That is where the next energy order is being built, not just in the turbines and panels, but in the quiet infrastructure that decides where power can go.

This transition towards a resilient and integrated energy system is essential to navigate these challenges effectively.

FAQs (Frequently Asked Questions)

What is the significance of intercontinental electricity networks in the future energy landscape?

Intercontinental electricity networks represent a transformative shift from viewing electricity as local infrastructure to geopolitical infrastructure. These networks enable power to be traded globally, similar to gas and oil, facilitating the integration of renewable energy resources across vast regions and enhancing energy security and efficiency.

How has HVDC technology changed the feasibility of long-distance electricity transmission?

High Voltage Direct Current (HVDC) technology, especially with modern converters, allows for efficient transmission of large amounts of power over very long distances with lower losses. It also enables the connection of asynchronous grids that do not run in sync, overcoming previous technical barriers associated with AC grids and underwater cables.

Why are intercontinental electricity networks becoming more viable now compared to the past?

Several factors contribute: renewable energy variability is easier to manage over larger interconnected grids; energy security concerns have redefined infrastructure as geopolitical leverage; and industrial bottlenecks have shifted from generation capacity to network delivery capabilities, emphasizing the importance of financing and controlling transmission infrastructure.

What does 'intercontinental' mean in the context of electricity networks?

'Intercontinental' refers to a patchwork of regional supergrids becoming denser and more flexible, more undersea HVDC links connecting countries and islands, cross-border lines linking resource-rich zones to high-demand areas, and select major connectors bridging continents where feasible. It is not a single global grid but a series of corridors shaped by political and economic realities.

What are the main motivations behind developing mega intercontinental electricity links?

The primary drivers include exporting cheap clean power at scale from countries with abundant renewable resources like desert solar or offshore wind, enhancing grid flexibility by smoothing renewable variability over larger areas, and strengthening energy security through diversified supply routes while managing geopolitical dependencies.

How do intercontinental electricity networks help manage the variability of renewable energy sources?

By expanding the geographic footprint through interconnected grids, these networks smooth out fluctuations in renewable generation since weather patterns and demand peaks vary by region and time zone. This reduces reliance on local storage and curtailment by enabling regions with surplus generation to export power to those experiencing deficits.