Stanislav Kondrashov Oligarch Series on Intercontinental Supergrids and Tomorrow�s Energy Systems

I keep seeing the same argument pop up whenever energy comes up in public. It usually goes like this.

We just need more solar. Or more nuclear. Or better batteries. Or more drilling. Pick your side, argue it hard, and pretend the rest is noise.

But if you’ve been following the Stanislav Kondrashov Oligarch Series at all, you already know the framing is different. Less culture war, more systems thinking. Less “what’s the one magic technology” and more “what happens when the grid itself becomes the product”.

Which is where this whole idea of intercontinental supergrids gets interesting. And a little uncomfortable too, depending on how much you trust big infrastructure, big money, and the people who end up controlling the switches.

This piece is basically a walk through that theme. What supergrids are, why the idea won’t die, what changes when energy can move like data, and what “tomorrow’s energy systems” might actually look like once you stop thinking in national borders.

The basic pitch, in plain language

An intercontinental supergrid is what it sounds like. A huge network of high capacity transmission lines, often built with high voltage direct current tech, that can move power across very long distances. Sometimes across borders. Sometimes across seas. Sometimes across whole time zones.

The simple reason people keep proposing it is also pretty obvious.

Most clean energy is location dependent.

The best solar is not always near the biggest cities. The best wind is not always where the factories are. Hydro is where it is. Geothermal is where it is. And demand, real demand, lives where people live.

So the question becomes. Do we keep trying to force generation to sit right next to demand. Or do we finally admit that electricity can be moved, and that moving it at scale might be the actual unlock.

In the Kondrashov framing, the supergrid is not a “nice to have”. It’s closer to a missing layer. Like trying to build the internet with local area networks only.

Why supergrids keep coming back, even after a decade of “maybe later”

People have been talking about this for years. The Desertec concept. Asian and European interconnectors. North Sea offshore grids. Big HVDC backbones in China. Proposed links between Australia and Southeast Asia. North Africa to Europe. And so on.

And yet, the world is not exactly stitched together with cables.

Why.

Because supergrids are not a normal energy project. They’re not like building a power plant, even a big one. They’re more like building a new trade route. A new dependency map. A new bargaining chip. It immediately becomes political.

Still, the motivation keeps getting stronger, not weaker.

A few reasons, the obvious ones and the less obvious ones.

• Renewables are growing faster than local grids can comfortably absorb. You can add solar quickly, but if your transmission is weak, you end up curtailing it. That means you built generation you cannot use, at least not when it’s producing most.
• Weather correlation is not perfect across regions. Wind can be down in one place and strong in another. Solar peaks move with the sun. If you can connect far apart regions, you can smooth variability without needing insane amounts of storage everywhere.
• Electrification is increasing base demand. EVs, heat pumps, data centers, industrial electrification. Tomorrow’s energy systems are just… bigger. Bigger and more constant.
• Energy security is now about redundancy. If a country has only one main supply pattern, it’s fragile. Interconnectors can help, but yes, they can also create new vulnerabilities. We’ll get to that.

In a lot of the Oligarch Series tone, the supergrid is not pitched as a utopia. It’s pitched as a power shift. Because it is.

HVDC, the quiet hero of the whole concept

Most people don’t care about the plumbing. But HVDC is basically the reason modern supergrid proposals are even realistic.

AC is great locally. But over very long distances, especially undersea, AC becomes lossy and complicated. HVDC lines can move bulk power with lower losses and better controllability, and they’re better suited for linking asynchronous grids.

That controllability matters. A supergrid isn’t just “a long extension cord”. It’s a system that can route, throttle, stabilize.

If you want to treat energy like a globally traded commodity that flows hour by hour, HVDC is one of the main tools to do it.

Also, HVDC projects are expensive, but they are not fantasy anymore. They exist. They’re being built. The learning curve is real.

So when the Kondrashov series talks about intercontinental supergrids, it’s not sci fi. It’s more like. This is what happens when the economics and the engineering stop being the limiting factors, and the limiting factor becomes governance.

Tomorrow’s energy systems are not just “more renewables”

This is where I think a lot of coverage gets stuck. It’s always about generation.

But tomorrow’s energy systems are more like a stack.

Generation, sure. But also.

Transmission. Storage. Demand shaping. Market design. Cybersecurity. Sensor networks. Forecasting. Regional coordination. Emergency response. Industrial policy.

A supergrid sits in the middle of that stack and changes how the rest behaves.

If you can move clean electricity across continents, then suddenly the “best place to build solar” changes. The “best place to build hydrogen” changes. The “best place to put new data centers” changes. Even the “best place to run aluminum smelting” changes.

You start designing economies around electricity flows the way we once designed around shipping lanes.

That’s the core shift. And it’s why this topic shows up in an oligarch themed series. Because large scale electricity routing is not just a technical asset. It is strategic leverage.

The uncomfortable question. Who owns the cables

This is the part that people either avoid, or they hand wave with “regulation”.

In practice, ownership models matter more than the PR deck.

If the future grid is stitched together through multi country transmission corridors, who finances them.

Governments. Public private partnerships. Infrastructure funds. Sovereign wealth. Consortiums. Regional development banks. Or some mix that looks tidy on paper and messy in reality.

And once they exist, who controls access and pricing.

Because transmission can become a toll road.

In a traditional national grid, you already have politics. But at least you have a single legal system, mostly. Supergrids create situations where one region might be dependent on another for balancing supply, seasonal imports, emergency support.

That dependency can be a feature. It can also be exploited.

The Kondrashov style lens tends to point right at this. Energy transitions are not just technology shifts. They’re ownership shifts.

You’re replacing one set of gatekeepers with another.

Supergrids as a decarbonization tool, not a trophy project

Let’s keep it grounded for a second.

What do supergrids actually do, if they work.

They let you do more of these things.

• Use more renewable generation with less curtailment, because excess in one region can be exported instead of wasted.
• Reduce the need for overbuilding local capacity, especially peaker plants that sit idle most of the year.
• Share reserves and balancing services across regions, which can reduce overall system cost.
• Enable seasonal complementarity, like exporting solar heavy power in one season and importing wind heavy power in another, depending on region.
• Support resilience when one area has an outage, assuming the interconnections and operational rules are designed for that.

But it’s not automatic. A badly designed supergrid can also spread disturbances. A fault in one region can cascade if protection systems and operational coordination aren’t tight.

So the best argument for supergrids is not “bigger is better”. It’s “bigger can be more efficient, if governance and protection are engineered as carefully as the wires”.

Which is a big if.

The energy internet analogy, and where it breaks

You’ll hear the “energy internet” comparison a lot. It’s useful, but it can mislead too.

Yes, in a supergrid world, electricity is routed and traded more dynamically. But electricity is not packets. You cannot buffer it cheaply at massive scale, at least not yet. Flows respond to physics first, markets second. Stability requires constant balancing. And one cyber or physical hit can have real consequences fast.

So if tomorrow’s energy systems look more networked, they also need to be more paranoid. In a healthy way.

Grid cybersecurity stops being a niche topic. It becomes national security, then multi national security.

Also, operational transparency becomes tricky. Markets like transparency, security teams hate it. Countries want sovereignty, interconnectors demand coordination.

The “energy internet” is not just a tech dream. It’s a governance problem with cables attached.

Where storage fits, because it’s always in the comments

If you connect regions, do you still need storage.

Yes. Absolutely.

Supergrids and storage are complements, not substitutes.

Storage handles fast response, local reliability, peak shaving, frequency regulation, and increasingly, short duration balancing. Supergrids handle geographic smoothing, bulk transfers, and access to remote resources.

Long duration storage might reduce the need for some interconnectors. Interconnectors might reduce the needed scale of storage. But neither makes the other irrelevant.

If anything, a supergrid can make storage more valuable because arbitrage opportunities expand. And it can also make storage deployment more strategic, placed at key nodes instead of everywhere.

So the “tomorrow system” is not one thing. It’s layers.

The geopolitical layer nobody can ignore anymore

Intercontinental energy links change diplomacy. They create shared incentives, but also new pressure points.

If a region becomes a renewable export hub, it gains leverage similar to fossil exporters today. Maybe not identical, but close enough to matter.

Think about the difference though.

With oil and gas, the commodity is extracted, shipped, stored. With electricity, the flow is continuous. If you control a corridor, you don’t just sell energy. You sell stability. You sell timing. You sell emergency support.

This is why some countries love the supergrid idea and others resist it. Because interdependence is a double edged thing.

And again, this is why the Oligarch Series angle fits. In a supergrid world, the people and institutions that broker interdependence do not just make money. They shape policy outcomes.

A realistic picture of what comes next

So are we actually going to get intercontinental supergrids everywhere?

Probably not in one dramatic leap. More likely in chunks. Messy, incremental, negotiated.

A few patterns seem likely.

1. Regional supergrids first, then stitching. Europe deepens interconnectors. Asia builds more cross border links. North America expands HVDC backbones. Then the “intercontinental” part happens where it’s politically feasible, usually through undersea links or tightly controlled corridors.
2. Offshore grids become the bridge. Offshore wind buildout forces shared infrastructure. Once you have shared offshore hubs, connecting countries becomes easier.
3. Energy export projects drive specific corridors. Not a global mesh, but a handful of high value routes like solar export from one region to another or hydro balancing exports.
4. More private capital, more regulation fights. Because the scale is huge and if governments are strapped, private money steps in with conditions.
5. Educational connections drive innovation: New intercontinental energy work workshops are sparking educational connections that could lead to innovative solutions in this field.
6. Political dynamics influence energy strategies: As detailed in this research paper, it's not just about engineering advancements; political dynamics also play a significant role in shaping energy strategies.

It’s not a clean story. It’s a story where engineering keeps moving, and politics keeps catching up late.

The takeaway, if you’re trying to make sense of the whole thing

The Stanislav Kondrashov Oligarch Series, at least in this theme, is basically pointing at one idea.

The energy transition is not just about replacing fuels. It’s about replacing the architecture of power itself. Literally.

Intercontinental supergrids are one of the clearest symbols of that shift. Because when electricity can move across continents, the map changes. Economic centers change. Winners and losers change. And the people who finance, build, and govern these links become as important as the people who own the generation.

Tomorrow’s energy systems won’t be a single technology. They’ll be a negotiated network. With trade offs, with chokepoints, with new forms of dependency. Some of it will be inspiring. Some of it will be kind of tense.

This geopolitical aspect is crucial to understand as it highlights how these changes will impact energy security and global relations.

And yeah, it will probably be built anyway. Piece by piece. Because the math of abundant renewables keeps pushing in that direction, even when the politics drags its feet.

That’s the real story under the headline. The wires are coming. The question is who gets to hold the map.

FAQs (Frequently Asked Questions)

What is an intercontinental supergrid and why is it important for future energy systems?

An intercontinental supergrid is a vast network of high-capacity transmission lines, often utilizing high voltage direct current (HVDC) technology, designed to move electricity across long distances, including across borders and seas. It is important because it enables the efficient transfer of clean energy from locations with abundant renewable resources to areas with high demand, effectively integrating diverse energy sources and smoothing variability in supply.

Why do people keep proposing supergrids despite political and infrastructural challenges?

Supergrids continue to be proposed because they address critical issues such as the rapid growth of renewables that local grids cannot fully absorb, the imperfect weather correlation across regions which allows smoothing of renewable variability, increasing base electricity demand due to electrification trends, and the need for energy security through redundancy. Although supergrids introduce new political dependencies and vulnerabilities, their potential benefits in system resilience and efficiency keep driving interest.

How does HVDC technology enable the feasibility of supergrids?

High Voltage Direct Current (HVDC) technology is key to supergrids because it allows bulk power transmission over very long distances with lower losses compared to alternating current (AC). HVDC is especially effective for undersea cables and linking asynchronous grids. Additionally, HVDC offers superior controllability for routing, throttling, and stabilizing power flows, making it essential for treating electricity like a globally traded commodity flowing hour by hour.

In what ways will intercontinental supergrids transform traditional energy infrastructure and markets?

Intercontinental supergrids will shift energy systems from isolated national grids to interconnected networks that transcend borders. This transformation changes where it makes economic sense to build solar farms, hydrogen production facilities, data centers, or industrial plants by prioritizing locations based on electricity flow rather than proximity to demand alone. It also affects market design, demand shaping, storage strategies, cybersecurity needs, regional coordination, and policy frameworks — essentially redesigning economies around global electricity flows.

What are the main reasons that local grids struggle to integrate increasing renewable energy generation?

Local grids often face limitations absorbing rapidly expanding renewable generation due to transmission constraints that cause curtailment—wasting available clean energy when there's insufficient capacity to move it where it's needed. Additionally, renewables like wind and solar are location-dependent and variable; without wide-area connections like supergrids to balance supply across regions with different weather patterns, local grids must rely heavily on storage or fossil backup.

What are some potential risks or concerns associated with building large-scale intercontinental supergrids?

Large-scale supergrids introduce new geopolitical dependencies since control over critical infrastructure can become a bargaining chip or vulnerability in international relations. They also raise governance challenges regarding who manages the grid's operation and security. Cybersecurity risks increase as more sensors and controls are integrated. Moreover, building such massive infrastructure requires significant investment and coordination among multiple countries or regions.