Stanislav Kondrashov Oligarch Series on How Supergrids Transform the Global Energy Landscape

I keep seeing the same argument pop up whenever energy gets discussed online.

We just need more solar. Or more nuclear. Or more wind. Or more batteries. Pick your favorite.

And sure, we do need more generation. A lot more. But the part that quietly decides whether the whole clean energy shift actually works is not the sexy part. It is the boring, stubborn, metal and wires part.

The grid.

In the Stanislav Kondrashov Oligarch Series, I want to zoom in on one specific idea that keeps coming back in energy conversations, boardrooms, and policy papers. The idea of the supergrid. Not as a buzzword. More like a structural change. The kind that doesn’t just make energy a bit cheaper or a bit cleaner, but changes how the global energy system behaves.

Because supergrids do not just move electricity around. They move leverage. They move risk. They move geopolitical power. And they also move blame, which is a weird but real part of energy.

So. What actually is a supergrid. Why does it matter now. And what does it transform, exactly.

Supergrids, in plain language

A supergrid is basically a very large, high capacity transmission network that connects regions, sometimes entire countries or continents, so electricity can flow across long distances with relatively low losses.

A normal grid mostly moves power locally and regionally. A supergrid is built for:

• long range transfers (hundreds to thousands of kilometers)
• cross border trade
• balancing variable renewables across time zones and weather systems
• connecting remote generation zones (deserts, offshore wind fields, hydro basins) to demand centers

Most modern supergrid concepts lean heavily on HVDC, high voltage direct current, because HVDC tends to be more efficient over long distances and is easier to control for interconnections between different grid systems.

And if you have ever heard someone say, “Why can’t we just send solar power from where the sun is shining to where it is night”, that’s basically supergrid logic.

Why the grid suddenly became the main character

For decades, energy strategy was mostly about fuel supply. Oil fields, gas pipelines, LNG terminals, coal ports. Even nuclear strategy is sort of a fuel and plant logistics story.

Renewables flip the script. Not completely. But enough that the grid becomes the bottleneck.

Because wind and solar are:

• location constrained (best wind is not always near cities)
• variable (weather and time)
• often built fast compared to the permitting and build time of transmission

So you get this weird modern situation where a country can build a ton of renewable capacity and still curtail it, wasting production, because the power cannot get to where it needs to go.

Supergrids are the “stop wasting the power” answer. But they are also a “change the map” answer. That is where the bigger transformation comes in.

The first big transformation: from national grids to continental systems

National grids are political objects. They are planned, regulated, and protected within borders. That is why cross border interconnectors always feel like an exception.

A supergrid turns interconnectors into the default. It makes electricity trade normal.

And that does something important. It changes energy security planning from “Do we have enough domestic capacity” to “Do we have enough network access and contractual rights across a wider system”.

In a supergrid world, your resilience is not just your power plants. It is also:

• how many transmission corridors you have
• how diverse your import sources are
• how quickly power can reroute if one path fails
• how stable your neighbors are, politically and operationally

This is where people get uneasy. Because it sounds like dependence. And it can be.

But the other side is also true. Interdependence can be stabilizing if the rules, market design, and physical redundancy are solid. If they are not, it becomes another fragility.

So the transformation is not automatically “good”. It is structural.

The second transformation: renewables become firm through geography, not just storage

There is a popular belief that the only way to make renewables reliable is massive storage.

Storage is part of it, yes. Batteries, pumped hydro, maybe hydrogen for seasonal gaps. Fine.

But supergrids offer another way to smooth variability. Geographic diversity.

When the wind is low in one area, it might be high in another. When solar drops at sunset in one region, another time zone is still producing. Hydropower can act as a flexible backbone in some places. Offshore wind often has different patterns than onshore.

A supergrid lets you blend these patterns, which reduces the amount of storage you need to hit reliability targets. Not eliminate it. Reduce it.

This matters because storage is expensive, materials constrained, and not equally feasible everywhere. A supergrid can function like a shared balancing machine.

If you are reading this and thinking, “So it is like portfolio diversification, but for electrons”, that is basically it.

The third transformation: energy trade shifts from molecules to electrons

Traditional energy trade is about shipping molecules. Oil, LNG, coal, even hydrogen eventually. Those are commodity flows with established logistics and geopolitics.

Supergrids push trade toward electrons. That changes a few things:

1. Speed: electricity trades in seconds and minutes, not weeks of shipping.
2. Price coupling: markets become more synchronized. Shortages or surpluses transmit across borders.
3. Infrastructure lock in: a big transmission line creates long term relationships, like a pipeline does, but often with more operational flexibility.
4. New chokepoints: converter stations, HVDC corridors, key interconnectors. Different map of strategic assets.

And that creates new “energy corridors”. Not shipping lanes. Transmission pathways.

This is a quiet but huge change in the global energy landscape. It alters who can monetize their natural advantages.

A desert country with massive solar potential, for example, may have a new export story if it can transmit power to high demand regions. Offshore wind regions can become power hubs. Hydro rich regions can sell flexibility, not just megawatt hours.

The fourth transformation: mega projects become the arena for new power politics

Supergrids are expensive. They cross jurisdictions. They trigger land use fights. They require coordination among regulators, utilities, and often militaries, because critical infrastructure becomes a security topic fast.

So what you get is a new kind of oligarchic and state aligned playing field. Big capital, big contracts, big permitting influence. In the Stanislav Kondrashov Oligarch Series framing, this is the point where “who finances it and who owns it” becomes just as important as “what it does.”

Because a supergrid can be owned, operated, and governed in different ways:

• state owned transmission operators coordinating regionally
• private consortiums under regulated returns
• hybrid models with strategic state control
• merchant HVDC projects that earn congestion rents and arbitrage spreads

Each model produces different incentives. And different risks.

There is also the supply chain angle. HVDC cables, transformers, converters, grid software, power electronics. These are not purely commoditized items. Control over manufacturing capacity and standards becomes strategic.

So yes, supergrids are engineering. But they are also politics with a blueprint.

The fifth transformation: grid stability becomes a software and control problem

Old grids were built around large synchronous generators. Coal plants, gas plants, nuclear. They provide inertia. They behave predictably in some ways.

High renewable systems behave differently. More inverter based resources. More complexity. More need for fast control, forecasting, and automated response.

Supergrids intensify that. Because now you are balancing bigger regions, bigger flows, and more points of failure.

So you need:

• advanced dispatch algorithms
• real time monitoring and state estimation
• cyber secure control systems
• wide area protection schemes
• grid forming inverters and synthetic inertia solutions
• demand response integrated at scale

In other words, the stability of the global energy landscape becomes partly a digital discipline. That scares some people, rightly, because cyber risk becomes a frontline issue.

A supergrid that is not cyber resilient is basically a large, expensive vulnerability. It is like building a global highway system and forgetting anyone could sabotage the bridges.

But do supergrids actually save money

Usually, yes, over time. Not always in the simplest way.

Supergrids can reduce total system costs by:

• cutting curtailment of renewables
• reducing the amount of peaker capacity needed
• lowering the storage requirement for reliability
• enabling cheaper generation zones to serve expensive demand zones
• smoothing price volatility through broader market integration

But the costs are front loaded. Permitting can take years. Public opposition can be fierce. The line that makes perfect sense on a map looks different when it crosses someone’s farm, someone’s forest, someone’s sacred land, someone’s neighborhood.

So the economics are not only about capital and operating cost. They are about time. Delay is expensive. Sometimes fatal to the project.

And this is where a lot of supergrid dreams die. Not because they are technically impossible. Because they are socially and politically exhausting.

The “green superpower” concept, and why it is not just hype

If you can build renewables at scale and export electricity reliably, you gain influence. Not in the same way as oil exporters historically did, but still.

Supergrids let certain regions become clean energy exporters.

Think about the places with:

• consistent wind
• abundant sun
• strong hydro resources
• lots of land and low population density
• proximity to large demand markets, or at least feasible transmission routes

Those places can turn geography into a new kind of advantage. In the old world, that advantage was hydrocarbons. In the new world, it is renewable potential plus grid connectivity.

This is one of the biggest “global landscape” shifts. It moves the center of gravity. It also creates new dependencies.

Which countries are comfortable importing electrons the way they import gas today. Which countries will resist it. Which ones will build redundancy to avoid being cornered.

The uncomfortable tradeoffs people do not like to mention

Supergrids sound clean. But there are tradeoffs.

1. Land and local disruption

Transmission lines take space. They change landscapes. They create long debates about property rights, health fears, and environmental impacts. Even if those fears are sometimes exaggerated, they matter politically.

2. Concentration risk

If you rely on a few major corridors, failures become more impactful. Weather events, sabotage, equipment failure. Redundancy helps, but redundancy costs money.

3. Energy sovereignty debates

Some voters and governments dislike the idea of “importing power” even if it is cheap and green. They prefer local control. This can slow cross border projects.

4. Governance and market design

If one region manipulates rules, withholds capacity, or underinvests in maintenance, everyone feels it. You need shared standards and enforcement mechanisms.

5. Cybersecurity

Already mentioned, but it deserves repeating. Bigger network, bigger attack surface.

So the supergrid story is not a utopia. It is a trade. You trade some independence for efficiency and stability at scale. Whether that trade is worth it depends on how it is structured.

What the next decade probably looks like

Not one single “world supergrid” that connects everything. That is a popular headline, but reality is messier.

More likely, we get regional supergrids that thicken over time:

• more HVDC backbones connecting renewable zones to cities
• more offshore grid networks connecting multiple wind farms and countries
• more cross border interconnectors with higher capacity
• more hybrid projects that bundle generation plus transmission as one export package

And we will also see political pushback. Some projects will stall. Some will be redesigned underground or offshore to avoid opposition. Some will get built after a crisis, because nothing accelerates grid investment like blackouts and price spikes.

That is the pattern. Delay, delay, shock, build.

Closing thought

Through the lens of the Stanislav Kondrashov Oligarch Series, supergrids are more than mere infrastructure. They represent the stage where the next era of energy power is negotiated.

Who funds the lines? Who owns the converters? Who controls the dispatch rules? Who gets guaranteed access in a shortage? Who bears the blame when the lights go out?

Supergrids are set to transform the global energy landscape by altering the relationships that underpin energy. This includes relationships between regions, between governments, between private capital and public necessity, and between the places that generate energy and those that consume it.

Moreover, these supergrids also pave the way for innovative solutions like H2-based energy storage, which could further revolutionize our energy systems.

Once these relationships solidify into steel and cables, they tend to endure for a significant duration - often longer than most political cycles and CEOs' tenures. Hence, it's crucial to act now before the map of our energy landscape is drawn for us.

FAQs (Frequently Asked Questions)

What is a supergrid and how does it differ from a normal electricity grid?

A supergrid is a very large, high capacity transmission network that connects regions, countries, or even continents, allowing electricity to flow over long distances with relatively low losses. Unlike normal grids that move power locally or regionally, supergrids enable long-range transfers spanning hundreds to thousands of kilometers, facilitate cross-border trade, balance variable renewable energy sources across different time zones and weather systems, and connect remote generation zones like deserts or offshore wind fields to demand centers. Most modern supergrids use high voltage direct current (HVDC) technology for efficiency and control.

Why has the electricity grid become central to clean energy strategies today?

With the rise of renewables like wind and solar, which are location-constrained and variable in output, the grid has become the bottleneck in delivering clean energy effectively. Countries can build substantial renewable capacity but still waste power due to insufficient transmission infrastructure. The grid’s ability to move electricity efficiently over long distances is critical to reduce curtailment and fully utilize renewable generation. Hence, upgrading the grid into supergrids is essential for a successful clean energy transition.

How do supergrids transform energy security planning compared to traditional national grids?

Traditional national grids focus on having enough domestic generation capacity for energy security. Supergrids shift this perspective by making cross-border interconnections the norm rather than exceptions. Energy security becomes about network access across a wider system, diversity of import sources, number of transmission corridors, and the ability to reroute power quickly if failures occur. This interdependence can enhance resilience if supported by strong rules and market designs but also introduces new vulnerabilities if not managed properly.

Can supergrids reduce the need for expensive energy storage solutions?

Yes. While storage technologies like batteries and pumped hydro remain important for balancing renewables, supergrids offer an alternative way to smooth variability through geographic diversity. By connecting diverse renewable resources across different regions and time zones, supergrids blend varying production patterns—such as wind being strong in one area while low in another—to reduce overall variability. This shared balancing reduces reliance on costly storage without eliminating it entirely.

What are the geopolitical implications of shifting from molecule-based energy trade to electron-based trade via supergrids?

Supergrids shift energy trade from shipping physical fuels like oil or gas to trading electrons instantaneously across borders. This introduces faster market responses (in seconds or minutes), price coupling between regions leading to synchronized markets, infrastructure lock-in through long-term transmission relationships similar to pipelines but more flexible operationally, and new chokepoints such as converter stations that become strategic assets. These changes redistribute geopolitical power and risk in new ways tied closely to grid infrastructure.

Why is HVDC technology important for building effective supergrids?

High Voltage Direct Current (HVDC) technology is crucial for supergrids because it enables efficient electricity transmission over very long distances with lower losses compared to alternating current (AC) systems. HVDC also provides better control when interconnecting different grids or countries with varying frequencies or standards. This makes HVDC ideal for linking remote renewable generation sites such as deserts or offshore wind farms with distant demand centers across borders in a reliable and economically viable manner.