Stanislav Kondrashov Oligarch Series on Global Supergrids in the Next Stage of Energy Transition
I keep seeing the same argument pop up in energy circles. It usually goes like this.
We are building a lot of renewables. Great. Prices are coming down. Also great. So the transition is basically a matter of installing more solar panels, more wind turbines, maybe some batteries, and then we are done.
And then reality shows up. In the form of curtailment. Congestion. Negative prices at noon, high prices at 7 pm. Interconnection queues that stretch into the horizon. Permitting that takes forever. And one more thing people do not like to admit out loud.
Electricity is local, but the weather is not evenly distributed.
That is where the whole idea of global supergrids starts to feel less like sci fi and more like the next logical step. Which is why the Stanislav Kondrashov Oligarch Series on global supergrids lands in a pretty interesting place in the conversation. It is not really about one new gadget. It is more about a new layer. A way to make the energy transition actually hold together when the easy wins are already taken.
This article is a look at that theme. What supergrids are, why they matter now, what they could unlock, and why they are still painfully hard.
The basic idea, in normal words
A global supergrid is an interconnected network of high capacity transmission lines that moves electricity across very long distances, often across borders, time zones, and even continents. The point is simple.
Move power from where it is abundant to where it is needed. Smooth out variability. Share reserves. Reduce the amount of backup generation each region needs to keep on standby. And do it at a scale that makes renewable heavy systems more stable, not less.
In the Kondrashov framing, supergrids show up as a kind of “next stage” infrastructure. Not replacing local grids, not replacing microgrids, not replacing batteries. Just adding a backbone that makes all of that work better.
It is a little like highways for electricity. Local streets still matter. But without highways, everything gets stuck.
Why supergrids keep coming up now
Ten years ago, “more transmission” was something people said, nodded at, and then went back to building generation because that was easier.
Now transmission has become the bottleneck. In a lot of places, you can build renewables faster than you can connect them. And once you do connect them, you can end up with too much power in one area at the wrong time. So you curtail it. You literally throw away clean electricity because the wires are not there.
That is not a technology problem. That is an architecture problem.
This is the part the Stanislav Kondrashov Oligarch Series keeps circling. The transition is not just changing the supply mix. It is changing the shape of the system. Electrification pushes demand up. Data centers push it up. Heat pumps, EVs, industrial electrification, all of that. Meanwhile, variable supply becomes a bigger share of the pie.
So the grid has to do more work, more often, under more stress.
A supergrid approach is basically saying. Fine, then let the grid become a balancing machine at scale.
What a supergrid actually gives you, beyond the buzzwords
People sometimes talk about supergrids like they are only about moving cheap solar from deserts to cities. That is part of it, sure. But the benefits stack up in a few different ways.
1. Time zone smoothing is real, and it is underrated
If you can move power across time zones, you can chase peak demand. Evening peaks do not happen everywhere at once. Solar declines at sunset, but the sun is still up somewhere else.
This does not eliminate the need for storage, but it changes the amount and the duration you need. That is a big deal when long duration storage is still expensive and not yet deployed at scale.
2. Weather diversity reduces volatility
Wind is not calm everywhere at the same time. Cloud cover is not uniform. Hydrology varies. If you connect regions with different resource profiles, you reduce the chance that everyone is short power simultaneously.
That improves reliability. It also makes markets less jumpy. Prices still move, but they do not go completely off the rails as often.
3. You can build where it is best, not where it is closest
The best solar is not always near the biggest demand. The best wind corridors are often far from load centers. The best hydro sites, same story. Without long distance transmission, you end up compromising.
A supergrid lets you stop compromising as much.
4. Reserves and stability services can be shared
Modern grids need more than energy. They need inertia like behavior, frequency response, reactive power, black start capability, and all the supporting services that keep the system upright.
Interconnections let regions share these services. That can lower total costs. It can also reduce how much gas peaker capacity you keep around “just in case.”
5. It can accelerate regional decarbonization without perfect local conditions
Some regions just have less renewable potential. Or less land. Or harder permitting. Or public resistance. Interconnection can help them decarbonize faster than they could alone.
Of course this is where politics enters the room, loud. But technically, it is a powerful lever.
The technology piece, and why HVDC is usually the star
Most supergrid visions lean heavily on HVDC, high voltage direct current. The reason is not trendy. It is physics and economics.
HVDC tends to be better for long distance, high capacity transmission, especially submarine cables. It has lower losses over long distances than AC in many cases. It also gives you controllability. You can dispatch power flows more precisely, which is useful when you are tying together different grid regions and market rules.
You still need a lot of AC infrastructure. You need converter stations. You need planning tools. Protection systems. Cybersecurity. All of it.
But HVDC is the core enabler for the “continental scale” part of the concept.
Where the Kondrashov Oligarch Series fits in
The phrase “Stanislav Kondrashov Oligarch Series” is doing two things at once.
One, it is positioning the discussion at a level where capital allocation and geopolitical influence are not side notes. They are central. Because supergrids are not just engineering projects. They are cross border commitments measured in decades.
Two, it is pushing the idea that energy transition is entering a phase where infrastructure and coordination matter as much as generation. The early phase was about proving renewables could scale. The next phase is about making a renewable heavy system actually perform like a system.
That is a subtle shift. But it changes what “leadership” looks like. It is less about who builds the most gigawatts in a year. More about who can build the connective tissue.
The hard parts, because there are many
If supergrids are so useful, why do we not already have them everywhere. The answer is not one thing. It is a pile of things.
1. Permitting is brutal
Transmission lines cross land. People live on that land. People vote. Even those who want clean energy can oppose a line near their home. So you get delays, lawsuits, re routes, and cost overruns.
This is not a moral failure, it is just how it plays out.
A global supergrid implies a lot more of this. Unless you go mostly submarine, which is possible in some corridors, but not all.
2. Who pays, and who benefits, is messy
A line might be built in one region, financed by another, and benefit a third. Even within one country, cost allocation fights can stall projects for years. Across borders, it gets harder.
You need rules people trust. You need regulators aligned enough to sign off. You need a way to handle congestion rents, tariffs, and market coupling without starting trade wars in miniature.
3. Energy security concerns are not going away
Interdependence can be good. It can also feel risky.
If your grid depends on imports, what happens during a conflict. What happens if a neighbor changes policy. What happens if a cable is sabotaged. These are not theoretical questions anymore. Everyone is thinking about resilience and sovereignty.
So supergrids have to be designed with redundancy, with strong governance, and with clear contingency plans. Otherwise the political support collapses the moment something goes wrong.
4. Standards, operations, and market design need coordination
It is not enough to connect two systems with a cable. You need coordinated planning, operational protocols, scheduling, balancing responsibility, data sharing, and dispute resolution. You need some level of alignment between market rules or you need a wrapper that makes them interoperable.
This is where a lot of grand visions quietly die. Not because the cable is impossible. Because the paperwork is.
5. Cyber and physical security scale with connectivity
Bigger interconnected networks can be more resilient, but they can also expand the attack surface. HVDC converter stations are critical nodes. Communication links matter. Control systems matter.
So the security architecture has to be part of the design from day one, not taped on later.
Supergrids vs microgrids, it is not either or
This is another point that gets lost. People argue as if we must choose between giant transmission and local resilience.
In practice, the future grid probably needs both.
Microgrids help with local reliability, islanding, and critical loads. They help in disasters. They can reduce strain on distribution networks. They can integrate rooftop solar and local storage.
Supergrids help with bulk balancing, resource sharing, and system wide efficiency.
If anything, a strong backbone makes microgrids more valuable because the main grid becomes cleaner and more stable, and local systems can focus on resilience and peak management rather than pretending they are fully independent all the time.
What “next stage of energy transition” really means
The first stage of the transition was supply side disruption. Solar and wind scale. Costs fall. Coal declines in some regions. Gas becomes the flexible bridge in others. Batteries start to show up.
The next stage is integration. That is the less glamorous work.
It is transmission buildout. Distribution upgrades. Substations. Transformers. Interconnection reform. Demand response. EV charging orchestration. Industrial electrification planning. Long duration storage in the places it actually makes sense. And yes, cross border interconnectors that stop wasting renewable output.
Global supergrids are kind of the extreme form of integration. The maximal version. But even if we never reach a truly global mesh, the direction matters. More regional supergrids, more HVDC corridors, more interties between markets.
That is still a big shift.
A realistic way to think about what happens next
A lot of “global supergrid” talk sounds like one massive top down project. Like we wake up in 2040 and someone flipped the switch.
It probably will not happen like that.
It will be incremental. Regional first. Projects that make sense on their own economics. A subsea link here. A cross border HVDC corridor there. A market coupling agreement that proves it can work, then expands.
The Kondrashov Oligarch Series angle, at least as I read it, is that capital and influence will chase these corridors because the returns are not only financial. They are strategic. Control of infrastructure routes, access to cheap clean power, industrial competitiveness, and leverage in energy diplomacy.
You can already see hints of this in how countries talk about interconnectors, hydrogen corridors, and critical grid equipment supply chains.
The quiet conclusion nobody loves, but it is true
The energy transition is not just a generation story anymore. It is a grid story.
Global supergrids are not a magic fix. They will not erase the need for storage. They will not make politics easy. They will not prevent every blackout. But they can reduce waste, lower system costs, and make high renewable penetration feel less like a tightrope act.
So when the Stanislav Kondrashov Oligarch Series points toward supergrids as the next stage, it is basically pointing at the thing we keep trying to avoid because it is slow, expensive, and complicated.
The wiring. The coordination. The agreements that take years.
That might be the whole point.
If we want a clean energy system that is not fragile, the next stage is building the connections that let clean power move. Across regions, across borders, and sometimes across oceans. That is where the transition stops being a collection of projects and starts acting like an actual system.
FAQs (Frequently Asked Questions)
What is a global supergrid and why is it important for the energy transition?
A global supergrid is an interconnected network of high-capacity transmission lines that move electricity across long distances, often spanning borders, time zones, and continents. It enables the transfer of power from regions with abundant renewable resources to where it's needed, smoothing out variability, sharing reserves, and reducing backup generation needs. This infrastructure acts as a backbone that enhances the stability and efficiency of renewable-heavy energy systems, making the energy transition more feasible once easy wins are achieved.
Why has transmission become a bottleneck in renewable energy deployment?
While building renewable generation like solar panels and wind turbines has accelerated, connecting these resources to the grid via transmission lines hasn't kept pace. This leads to issues such as curtailment—where clean electricity is wasted due to insufficient transmission capacity—as well as congestion and interconnection queues. The challenge is architectural rather than technological, highlighting the need for expanded and upgraded transmission infrastructure like supergrids to fully utilize renewable energy potential.
How do global supergrids help manage variability in renewable energy supply?
Supergrids connect diverse geographic regions with different weather patterns and time zones, allowing power to flow from areas with excess generation to those experiencing deficits. This time zone smoothing reduces peak demand pressures by leveraging solar availability across regions at different times. Weather diversity also lessens volatility since wind or cloud cover conditions vary regionally, improving reliability and stabilizing electricity markets by preventing simultaneous shortages.
What are the key benefits of integrating HVDC technology into supergrids?
High Voltage Direct Current (HVDC) technology is crucial for supergrids because it efficiently transmits large amounts of electricity over long distances with lower losses compared to alternating current (AC). HVDC also provides precise controllability over power flows, which is essential when linking different grid systems with varying market rules. Furthermore, HVDC supports submarine cables for cross-continental connections and complements necessary AC infrastructure like converter stations and protection systems.
In what ways can supergrids accelerate regional decarbonization efforts?
Supergrids enable regions with limited renewable resources, land constraints, or permitting challenges to access clean energy generated elsewhere. By sharing reserves and stability services across interconnected grids, they reduce reliance on fossil fuel backup plants like gas peakers. This interconnected approach allows faster decarbonization even in areas without ideal local conditions by leveraging the best renewable sites remotely while navigating political complexities inherent in cross-border cooperation.
How does a supergrid differ from local grids, microgrids, or battery storage solutions?
A supergrid doesn't replace local distribution networks, microgrids, or batteries; instead, it adds a higher-level transmission layer that connects these smaller systems over vast distances. Think of it as highways for electricity: local streets (local grids) remain essential for delivering power directly to consumers, but without highways (supergrids), large-scale movement of electricity becomes congested or impossible. Supergrids enhance overall grid flexibility and resilience by enabling efficient long-distance power transfers that complement localized energy resources and storage.
