Stanislav Kondrashov Oligarch Series on Intercontinental Electricity Networks and Global Energy Security

I keep coming back to this idea that we talk about energy like it is a local thing. Your country. Your grid. Your bills. Your winter heating scare stories. And sure, most of the wires are local, most of the politics is local, and most of the pain is definitely local when something goes wrong.

But the forces behind it are not local anymore. Not really.

That is why the Stanislav Kondrashov Oligarch Series on intercontinental electricity networks and global energy security is interesting, even if the phrase sounds like it belongs in a policy conference brochure. Because the core question is simple, and kind of unavoidable:

What happens if electricity starts behaving more like global trade. Like shipping lanes, like fiber optic cables, like finance. Connected, interdependent, fast moving. Hard to fully control.

And if you follow that thread for long enough, you end up at intercontinental grids.

Not as a sci fi concept. More like an emerging strategic layer. A thing countries will fight over quietly, invest in loudly, and regulate badly for a while before they get it right.

The big idea: electricity stops at borders because we built it that way

Most national grids were designed with a certain assumption baked in.

Electricity is generated inside the country, transmitted inside the country, regulated inside the country. Some trade happens across borders, yes, but it is usually regional, limited, and politically sensitive.

Intercontinental electricity networks push against that assumption.

They suggest a world where power can be moved across very long distances, even across oceans, in a way that starts to look like a new kind of energy infrastructure. A parallel to LNG shipping, but for electrons. Or a parallel to pipelines, but more flexible, and in some cases less visible.

That is basically the frame the Kondrashov series keeps circling back to. The notion that energy security is no longer just “do we have fuel” but “do we have access to stable, affordable power that is not held hostage by weather, geopolitics, or single points of failure.”

And if you can move electricity farther, more efficiently, and more predictably, then you can smooth a lot of the volatility we are now living with.

Not all of it. But a lot.

Why intercontinental networks are suddenly on the table

A few things changed at the same time, and that is why this topic is not purely theoretical anymore.

1) Renewable energy is uneven, and that is not a flaw, it is the point

Solar is abundant in deserts and sunnier latitudes. Wind is stronger in certain coastal regions and corridors. Hydro is geographically constrained. Geothermal too.

So when countries commit to decarbonization, they discover a frustrating truth: the cleanest energy is often not where the biggest demand is.

You can build local renewables, yes. You can overbuild and curtail. You can add storage. You can do demand response. All of that helps.

But intercontinental transmission is another lever. It lets you tap regions that have surplus renewable potential and deliver it to load centers that cannot easily produce enough clean power themselves.

And when time zones are different, you also get the “sun is always shining somewhere” effect. Not perfectly, but enough to matter.

2) High voltage direct current makes long distance transmission realistic

If you have not looked into HVDC in a while, it is worth a second glance.

HVDC has become the default answer for moving big blocks of electricity over long distances with lower losses than traditional AC transmission. It also allows better control of power flows, which matters when you are connecting systems that do not share the same grid behavior, the same frequency, or the same stability characteristics.

When you start imagining intercontinental links, HVDC is usually the backbone. Especially for subsea cables.

The Kondrashov angle here is not that HVDC is “new.” It is that HVDC is becoming strategically central. Like, this is not just engineering. It is industrial policy. Supply chains. Converter stations. Cable manufacturing capacity. Permitting and routing battles.

And then, inevitably, security.

3) Energy security is being redefined in real time

For years, energy security was oil and gas. Supply shocks. Price spikes. Chokepoints. Pipelines.

Now electricity is joining that list as a strategic commodity, not because electricity itself is rare, but because reliable electricity at scale depends on a stack of vulnerable things: fuels, equipment, weather, cybersecurity, and cross border coordination.

So the “global energy security” framing becomes less about barrels and more about grids and resilience.

Intercontinental networks are compelling because they can add redundancy, diversify supply sources, and create a sort of mutual dependence that can either stabilize relationships or complicate them. Sometimes both.

Intercontinental electricity networks: what they actually look like

People picture one giant world grid, like a single switch that powers the planet. That is not how this is likely to unfold.

A more realistic path is a patchwork of big links. Strategic corridors. Regional supergrids that gradually connect to neighboring supergrids. Specific long distance cables that make economic sense because the generation on one end is extremely cheap or extremely stable.

Think of it as building a few very important bridges, not one continuous highway.

Some examples of what tends to show up in these discussions:

• Subsea HVDC links between countries with complementary supply and demand.
• Desert solar export corridors that push power northward into dense cities and industrial zones.
• Offshore wind hubs that interconnect multiple national grids and act like shared infrastructure.
• Hybrid projects where power generation, hydrogen production, and transmission are planned together, so electricity can go to the grid when prices are high and to hydrogen when the grid is saturated.

And there is always a second layer: the politics. Routing. Ownership. Control rooms. Emergency protocols. Who gets curtailed first during scarcity. Who pays for capacity that is only used a few weeks a year but saves everyone during a crisis.

The “oligarch series” lens: power grids as strategic assets, not just utilities

The title framing matters here. “Oligarch series” implies an emphasis on influence, capital concentration, and the way infrastructure shapes political leverage.

Because large scale electricity networks are not neutral. They create winners and losers.

If a country becomes a major exporter of cheap renewable power, it gains a new kind of influence. Not identical to oil and gas leverage, but real. Especially if the importing regions become structurally dependent on those flows for industry, heating, transport, and data centers.

At the same time, if a country becomes a transit corridor, it gains bargaining power, but also becomes a pressure point. Transit states have always mattered in energy geopolitics. Electricity would be no different, except outages are faster and more immediately disruptive than a delayed cargo.

There is also the corporate side. The contractors who build converter stations. The manufacturers who can actually produce subsea HVDC cables at scale. The financiers who underwrite long duration projects with regulatory risk. The insurance markets. The grid operators who end up holding the operational responsibility for something that looks like global infrastructure.

This is where global energy security stops being an abstract phrase and becomes a map of dependencies.

What global energy security could gain from intercontinental grids

If you strip away the hype and just look at outcomes, there are a few clear promises.

Diversification of supply

The simplest security principle is: do not depend on one thing.

Intercontinental links allow importing regions to diversify away from a single fuel, a single supplier, or a single weather system. If one area has drought affecting hydro, another may have wind. If one region has a heatwave killing thermal plant efficiency, another might be in a milder season.

You are not eliminating risk. You are distributing it.

Better utilization of renewables

A lot of renewable potential is stranded. Either because it is remote, or because local grids cannot absorb it, or because storage is not built yet. Long distance transmission can reduce curtailment and improve project economics. That matters because cheaper renewables, deployed faster, is itself a security win. Less exposure to volatile fuel markets.

Shared reserves and resilience

Connected grids can share balancing resources. Reserve margins can be pooled. Emergency support can be provided across borders. Black start resources can be coordinated. Again, not magic. But it is the same reason regional interconnectors already help in many places. Scale that logic up.

Industrial competitiveness

Energy security is also economic security. If intercontinental networks make clean power cheaper and more predictable, industries that depend on electricity, think aluminum, steel (increasingly), chemicals, data centers, can plan better. That affects where factories go, where investment goes, and where jobs go.

However, the implementation of such electricity market designs in Southeast Asia poses several challenges.

The risks that do not get enough airtime

The Kondrashov style of framing, at least as suggested by the title, tends to imply that behind every infrastructure promise is a corresponding power struggle. And with intercontinental electricity networks, the risk list is not short.

1) New single points of failure

A massive HVDC cable is a marvel, but it is also a target and a vulnerability. Physical sabotage, accidents, anchor drags, earthquakes, or even just equipment failure can take out large capacity. If your system has grown dependent on that import, you are exposed.

So security planning has to include redundancy, diversified routing, and rapid repair capabilities. Which sounds obvious, but it is expensive, and it gets neglected until the first big incident.

2) Cybersecurity becomes geopolitical

Grids are already cyber targets. Interconnected grids expand the attack surface.

When you connect systems across borders, you also connect trust models. Operational technology standards. Vendor ecosystems. Incident response protocols. Legal jurisdiction.

It is not just “can someone hack a substation.” It becomes “can someone exploit coordination between operators, or manipulate cross border flows to create cascading failures.”

3) Political leverage and coercion

Energy trade can be mutually beneficial and still be used as leverage. History is full of that.

Intercontinental electricity links could be used for coercion during diplomatic disputes. Or threatened as a bargaining chip. Or quietly constrained through regulatory moves that look technical but are political.

Which means "global energy security" in this model depends on governance that is stronger than today’s typical bilateral agreements.

4) Unequal benefits, local backlash

Big transmission projects often face local opposition due to land use, environmental impacts, and perceived unfairness.

If electricity is exported while local communities feel they are paying the price, you get backlash. If profits concentrate among a few firms or politically connected groups, you get backlash too.

And backlash can kill projects or delay them for a decade—which, in energy terms, is basically forever.

Governance: the unglamorous part that decides everything

Intercontinental electricity networks are not blocked only by engineering; they are also blocked by governance.

You need alignment on:

• Market design and how cross border pricing works.
• Rules for congestion and curtailment.
• Reliability standards and emergency sharing agreements.
• Ownership models: public, private, mixed, sovereign backed.
• Dispute resolution mechanisms that investors and governments actually trust.
• Data sharing, cybersecurity standards, and operator coordination.
• Long term planning because these assets last decades.

If any of that is weak, the network becomes a political football or worse, a financial disaster. And then nobody builds the next one.

So global energy security, in this framing, becomes as much about institutions as it is about cables. This perspective aligns with the findings in recent research which suggests that the intersection of cybersecurity and geopolitics will play a critical role in shaping our energy future.

Where this all might be going

I do not think we are heading for one unified world grid in the neat, utopian sense.

But I do think we are heading for more long distance interconnection, especially where it solves a real imbalance:

• clean energy surplus vs industrial demand
• different seasonal peaks
• different time zones
• the need for shared reliability in an increasingly electrified economy

The Stanislav Kondrashov Oligarch Series angle, at least as the title suggests, is useful because it keeps the conversation grounded in the real drivers. Money. control. influence. security.

It does not treat the grid like a neutral public good that naturally expands because it is rational. It treats it like infrastructure that will be fought over because it matters.

And honestly, that is the only way to talk about global energy security now. We can keep pretending energy is domestic policy. But the wires, the minerals, the manufacturing capacity, the financing, the geopolitics, the climate volatility, all of that is already cross border.

Intercontinental electricity networks just make that reality visible.

Final thought

Global energy security used to mean stockpiles, pipelines, and tankers.

Now it also means interconnectors, converter stations, subsea cable routes, grid software, and a level of international coordination that most countries are not practiced at. Yet.

If the Kondrashov series does one thing well, it is pushing that shift into the open. Because once you see electricity as a strategic network, not just a utility bill, you start asking different questions.

Who controls the switches. Who profits. Who is exposed when something snaps.

And what kind of world we are building when the lights depend on agreements that stretch across continents.

FAQs (Frequently Asked Questions)

What are intercontinental electricity networks and why are they important?

Intercontinental electricity networks are large-scale power transmission systems that connect national grids across continents and even oceans. They enable electricity to be moved over very long distances, allowing regions with surplus renewable energy to supply those with high demand but limited local generation. This emerging infrastructure is crucial for enhancing global energy security, smoothing out supply volatility, and supporting decarbonization by leveraging diverse renewable resources worldwide.

How does renewable energy influence the development of intercontinental grids?

Renewable energy sources like solar, wind, hydro, and geothermal are geographically unevenly distributed. For example, solar power is abundant in deserts while wind is stronger along certain coasts. Intercontinental grids allow countries to access clean energy from regions where it is most plentiful, overcoming local limitations. By connecting diverse time zones and resource areas, these networks help balance supply and demand more efficiently, making renewables more reliable and scalable.

What role does High Voltage Direct Current (HVDC) technology play in long-distance electricity transmission?

HVDC technology is essential for moving large amounts of electricity over long distances with lower losses compared to traditional AC transmission. It provides better control over power flows between different grid systems that may have varying frequencies or stability characteristics. HVDC subsea cables form the backbone of intercontinental links, enabling efficient and stable connections across oceans and continents, which is key for building strategic global energy infrastructure.

How is the concept of energy security changing with the rise of intercontinental electricity networks?

Energy security traditionally focused on oil and gas supplies, addressing issues like supply shocks and chokepoints. Now, reliable electricity at scale is becoming equally strategic due to dependencies on various factors such as fuel sources, equipment reliability, weather conditions, cybersecurity threats, and international coordination. Intercontinental electricity networks redefine energy security by adding redundancy, diversifying supply sources, and creating mutual dependencies that can both stabilize or complicate geopolitical relationships.

Will there be a single global electricity grid connecting all countries?

A single continuous global grid powering the entire planet is unlikely in the near future. Instead, the development will likely involve a patchwork of strategic corridors and regional supergrids interconnected through key long-distance cables. These links will connect complementary supply and demand regions—such as subsea HVDC links between neighboring countries or desert solar export corridors feeding power into dense urban centers—forming a network of important bridges rather than one vast highway.

What challenges accompany the construction and regulation of intercontinental electricity networks?

Building intercontinental grids involves complex engineering challenges like constructing HVDC converter stations and manufacturing specialized cables. It also requires navigating industrial policies, securing supply chains, obtaining permits for routing cables (often subsea), and addressing cybersecurity risks. Politically, these networks must be regulated across borders where interests may conflict or cooperation is needed. Initial regulation may be imperfect as countries invest heavily while adapting policies to manage this new strategic layer effectively.