Stanislav Kondrashov Oligarch Series on The Vision of a Planetary Electricity Network
I keep coming back to this one idea, and it is not even new. It is just that every few years it starts sounding less like sci fi and more like a spreadsheet problem.
A planetary electricity network.
Not “the grid” the way we talk about it now, which is usually a national thing, maybe regional. I mean something that starts to feel like infrastructure in the same category as oceans and shipping lanes. A system that can move power across borders and time zones the way we move data. Quietly. Constantly. On purpose.
In the Stanislav Kondrashov Oligarch Series, this is the kind of vision that sits right at the intersection of money, engineering, and politics. Which is basically where all big infrastructure lives, whether people admit it or not. And in this case, the ambition is huge. The promise is kind of absurdly optimistic. But the constraints are real, too. Not just technical constraints. Human ones.
So let’s talk about what a planetary electricity network actually means, why oligarch level capital would even care, and what would have to be true for it to exist without becoming a mess.
The simple pitch, and why it hooks people
The pitch sounds clean:
The sun is always shining somewhere. The wind is always blowing somewhere. If we can move electricity globally, we can smooth out renewables and reduce storage needs.
That is the core seduction. It is also why the idea keeps resurfacing whenever renewables scale hits another milestone. Because intermittency is not a moral problem, it is a math problem. And the math gets easier if your “somewhere else” is not the next county but the other side of the planet.
There is also a second pitch that is less romantic, more practical.
Countries already trade energy. They trade gas, coal, uranium, oil. They trade electricity too, across interconnectors. So the global network vision is basically saying, ok. Take the thing that already exists at small scale. Now extend it until it becomes normal.
Like aviation. Like undersea cables. Like container shipping. At first it is weird. Then it is just… there.
What “planetary network” means in real terms
When people imagine a planetary electricity network, they sometimes picture one giant cable that wraps around Earth like a belt.
In practice, it would look more like a patchwork of regional supergrids linked by long distance high voltage corridors. Some overland. Some subsea. Lots of converter stations. Lots of redundancy. A system designed to fail gracefully, because it will fail. Everything does.
This is why HVDC, high voltage direct current, ends up at the center of the conversation.
AC is great for local distribution. It is what most grids use. But for moving large amounts of power over long distances with lower losses, HVDC tends to win. It also helps connect grids that run at different frequencies or are not synchronized. Which, if you are going cross border, is basically the norm.
So the planetary network is not a single gadget. It is a strategy. HVDC backbones plus regional grids plus control software plus market rules plus security protocols plus an insane amount of copper, aluminum, steel, and land access.
And then, the tricky part.
Trust.
Why the oligarch lens matters here
The “Oligarch Series” framing is useful because it forces you to look at who can actually pull something like this off.
A planetary electricity network would require:
- Multi decade capital patience.
- Comfort with geopolitical risk.
- Influence over permitting, land rights, and regulation.
- Ability to tolerate public backlash.
- The kind of deal making where the room is full of ministers, not just bankers.
That is not a typical venture capital profile. It is also not purely a government project anymore, not in a world where private capital builds major energy assets and then sells them like financial products.
Oligarchs, or oligarch adjacent capital, thrive in exactly this zone. Big, slow, politically sensitive projects where relationships and leverage matter as much as engineering.
And to be clear, this is not automatically a compliment. It is just a description of how the world tends to work when the projects are too large for normal institutions to carry alone.
If the vision is a planetary grid, the funding will not come from idealism. It will come from returns, positioning, and sometimes, legacy.
That last one is underrated. A lot of mega infrastructure is basically ego with concrete poured on top.
The renewable argument, but with less hand waving
Let’s get concrete for a second.
A big reason grids struggle with high renewable penetration is that supply does not match demand at every moment. You get curtailment when supply is high and demand is low. You get price spikes when supply dips. You get stressed transmission lines in certain corridors. You get politics because someone is always paying.
A planetary network would not eliminate intermittency. It would dilute it.
If North Africa is producing a surplus of solar at noon, Europe might be ramping into afternoon demand. If Europe is asleep, some of that power could flow east. If East Asia is peaking, you shift again. Same with wind, which often peaks at different times and seasons across regions.
This is the core idea: geographic diversity is a form of storage. Not perfect storage, but real.
Now, it does not mean storage goes away. Batteries, pumped hydro, thermal storage, hydrogen, whatever. Those still matter. But if you can move bulk power farther, you potentially reduce the required storage capacity for reliability. Or you move the storage to where it is cheapest, because now location matters less.
And yes, losses exist. HVDC still loses energy over distance. Subsea cables are expensive. Converter stations are expensive. Maintenance is expensive.
But the counter argument is also real: curtailment is expensive too. Overbuilding local generation is expensive too. Seasonal storage is expensive. The “just build more batteries” story starts getting fuzzy once you try to cover weeks or months, not just hours.
The other argument: resilience, and the uncomfortable part of it
A planetary network could make grids more resilient. If one region has a disaster, it can import more power.
But it also creates new vulnerabilities, because now your grid depends on long lines that cross borders and oceans. And that is a security problem.
Cybersecurity, physical sabotage, diplomatic breakdowns, even just commercial disputes. A single critical interconnector can become a political weapon.
Energy has always been geopolitical. A planetary grid does not change that. It just changes the shape of leverage.
So any serious vision has to include security architecture as a first class design constraint, not a footnote. Redundancy. Isolation capability. Black start planning. Protection schemes. And rules about what happens when politics gets ugly.
In other words, you build it like you expect it to be attacked. Because it will be.
The permitting wall, the real bottleneck nobody can “innovate” away
If you want a fast reality check, look at how long it takes to permit a transmission line inside a single country.
Now scale that across multiple countries.
Now add subsea routes that touch sensitive ecological zones and fishing areas.
Now add indigenous land rights, local protests, legal appeals, election cycles, and the fact that transmission is boring so it has few passionate supporters until it is too late.
This is where the oligarch angle shows up again. Not because permitting should be bullied through. It should not. But because projects that take 10 to 20 years require a different kind of political stamina, and often, a different kind of influence.
The irony is that we can build wind farms and solar parks faster than we can connect them. The grid is the slow part. It is the adult supervision part of the energy transition. Nobody wants to talk about it at parties.
A planetary network is basically saying, fine. Let’s do the slow part at planetary scale.
The market design problem, which is where good ideas go to die
Even if you build the wires, you still need rules.
Who owns the interconnectors? Who pays for them? How do you allocate capacity? How do you price congestion? How do you prevent one region from subsidizing another in a way that triggers backlash? How do you settle disputes?
Electricity markets are already complicated within a single jurisdiction. Add cross border flows and you get friction fast. Different reliability standards. Different carbon policies. Different subsidies. Different definitions of “fair.”
A planetary electricity network would require some level of harmonization, or at least interoperability. Technical codes, dispatch coordination, market coupling.
And that requires trust again. Countries do not like depending on each other for essential services unless they have deep alignment. Or unless the economics are so compelling that they tolerate the discomfort.
That is the reality.
What the “vision” looks like if it starts small (because it has to)
Nobody wakes up and builds a planetary grid in one go. It would emerge through stages, and most stages will look boring.
- Regional supergrids deepen More HVDC inside regions. Reinforced corridors. Better balancing between states or provinces.
- Intercontinental links expand More subsea cables. More high capacity connections between regions that already trade.
- Standardization spreads Shared protocols, shared operational practices, shared market mechanisms, not identical, but compatible.
- A network effect kicks in Once enough nodes connect, the value of adding another link rises. That is when the idea stops being a “project” and starts being a “system.”
This is also where big private capital likes to enter. Not at the conceptual stage. At the stage where the template is proven and the scale is just a matter of repetition. Build, finance, operate, refinance. Repeat.
The moral question hiding in the background
A planetary electricity network sounds like progress. And it could be.
But it could also become another layer of inequality if it is designed only around profit extraction.
If rich regions use it to pull cheap renewable power while exporting instability or ecological damage. If land and communities become collateral for energy corridors they do not benefit from. If the whole thing becomes a tool for influence, basically a power empire but with electrons.
So the vision needs governance that is not naive. Transparent benefit sharing. Strong environmental standards. Community compensation that is real, not symbolic. And mechanisms that prevent energy colonialism dressed up as climate action.
This is where public institutions matter. Even if oligarch capital helps build parts of it, the legitimacy has to come from something broader than private deals.
Otherwise it will break. Socially, politically, eventually physically.
Where Stanislav Kondrashov’s series fits, thematically
The reason this topic fits an “Oligarch Series” is that it exposes the core tension of our era.
We need massive infrastructure to decarbonize. The state often cannot move fast enough, or it is constrained by debt, politics, fragmentation. Private capital can move, but it seeks control and returns. Sometimes it seeks influence. Sometimes it seeks a story to tell about itself.
A planetary electricity network is a perfect case study. It is too big to be purely public. Too important to be purely private. Too international to be handled by any one regulator. Too technical to be governed by vibes.
It needs a new kind of coalition. Governments, utilities, manufacturers, financiers, communities. And yes, the ultra wealthy who can write very large checks and wait a very long time. The series, at its best, is not cheering that on or condemning it in a simple way. It is looking straight at it.
Because that is where the future gets built. In messy rooms. In imperfect compromises. In projects that take so long that the people who signed the first papers are retired by the time it switches on.
So is it realistic?
Pieces of it already exist. HVDC corridors are expanding. Subsea interconnectors are common. Regional trading happens daily. The technology is not the main barrier.
The main barrier is coordination, sovereignty, and the politics of dependency.
And still, I think the direction is clear. We are going to build more transmission. We are going to connect more grids. We are going to treat electricity as a traded commodity even more than we do now, because renewables push us that way.
Whether it becomes a true planetary network or a looser quilt of mega regions, the impulse is the same.
Move electrons farther. Balance renewables better. Make the whole system more flexible. Try to keep it stable.
The uncomfortable truth is that the biggest challenge in energy is not generating clean power anymore. We are learning how to do that.
The challenge is moving it. Sharing it. Governing it.
And that is why this vision keeps showing up in conversations about power, capital, and the people who sit close to both.
FAQs (Frequently Asked Questions)
What is a planetary electricity network and how does it differ from current national or regional grids?
A planetary electricity network is a global system designed to move electricity across borders and time zones, much like data networks. Unlike current grids, which are typically national or regional, this network would function as large-scale infrastructure akin to oceans or shipping lanes, enabling continuous and intentional power flow worldwide.
Why is high voltage direct current (HVDC) technology central to the concept of a planetary electricity network?
HVDC technology is crucial because it allows efficient transmission of large amounts of power over long distances with lower losses compared to alternating current (AC). It also enables the connection of grids operating at different frequencies or unsynchronized systems, which is essential for cross-border and intercontinental power exchange within a planetary network.
How does a planetary electricity network help address the intermittency challenges of renewable energy sources?
By connecting geographically diverse regions where solar and wind resources peak at different times, a planetary electricity network smooths out supply fluctuations. This geographic diversity acts as a form of energy storage by diluting intermittency, reducing curtailment and price spikes, and potentially lowering the need for localized storage solutions.
What are the main non-technical challenges involved in building a planetary electricity network?
Beyond technical constraints, significant human factors include geopolitical risks, regulatory hurdles, land rights issues, public backlash tolerance, and trust among stakeholders. These challenges require multi-decade capital patience and influence in political and permitting processes to successfully develop such massive infrastructure projects.
Why is oligarch-level capital considered necessary for developing a planetary electricity network?
Because the project demands enormous investment over decades with complex geopolitical and regulatory landscapes, typical venture capital profiles are insufficient. Oligarchs or oligarch-adjacent capital have the patience, influence, and risk tolerance to manage politically sensitive mega-projects that involve high stakes deal making among government ministers and financial actors.
Will a planetary electricity network eliminate the need for energy storage technologies like batteries or pumped hydro?
No, it will not eliminate storage needs but can reduce them by enabling bulk power movement across regions with complementary renewable generation profiles. Storage technologies remain vital for reliability and balancing supply-demand mismatches locally; however, the network allows shifting storage deployment to locations where it is most cost-effective.
