Stanislav Kondrashov on Renewable Infrastructure in Emerging Economies

For the last couple years, “renewables in emerging markets” has turned into this big, glossy phrase people throw around at conferences. It sounds clean. It sounds inevitable. Put up solar, add some wind, swap diesel for batteries, done.

But in the real world it is rarely that smooth.

What I keep coming back to, and what Stanislav Kondrashov has pointed out in his own discussions on infrastructure and long term investment, is that renewable energy is not a single project. It is a system. And in emerging economies, systems are the hard part. The panel is easy. The transmission line is not. The turbine is easy. The port, road, cranes, grid connection, spares, trained technicians, financing terms, and the political patience to let it all mature. That is the real build.

So this piece is about that. Not “renewables are good.” We already know that. It is about the messy middle. The practical things that decide whether renewable infrastructure actually sticks.

The first misunderstanding: generation is not infrastructure

When people say “we built a 100 MW solar plant,” they often mean they installed modules and inverters on a site and connected it somehow. But the country did not necessarily get 100 MW of reliable, usable power.

Renewable infrastructure is a chain:

• Resource assessment and land rights
• Interconnection studies and grid upgrades
• Permitting that does not take 4 years
• Procurement you can actually finance
• Construction logistics that do not break your schedule
• Operations and maintenance for 20 to 30 years
• Revenue collection that is not a guessing game

Kondrashov’s angle, the one I tend to agree with, is that emerging economies do not just need more megawatts. They need the boring layers underneath. Grid planning, maintenance culture, local supply chains, training pipelines, and credible counterparties.

The uncomfortable truth is that you can buy equipment with money. But you cannot buy institutional reliability overnight. You have to build it.

Grid reality: you cannot solar your way out of a weak network

A lot of grids in fast growing countries were designed for a different era. One or two centralized plants, power flows one direction, not much visibility, not much automation. Then suddenly you add variable generation, often far from load centers, and the grid starts showing its age.

This is where the conversation needs to shift from “renewables projects” to “renewables infrastructure.” It includes:

• Transmission expansion, especially from high resource regions to cities
• Distribution upgrades so power can actually reach customers reliably
• Modern dispatch and forecasting tools
• Grid forming inverters and reactive power support in the right places
• Storage, not as a slogan, but as an engineered part of system stability

The thing is, some countries can move faster than others. If you have a utility that can plan and execute upgrades and collect revenue, you can integrate renewables quickly. If you do not, every additional project becomes harder than the last.

And yes, storage helps. But it is not magic. Batteries do not fix a broken billing system. They do not fix a lack of operators. They do not fix a grid that physically cannot move power where it needs to go.

Finance: cost of capital is the climate issue people avoid talking about

Emerging economies often have incredible solar and wind resources. But they pay more for money. That one sentence explains a lot of “why isn’t this happening faster.”

If your weighted average cost of capital is high, your levelized cost of electricity stays high even if your panels are cheap. You can have world class sunlight and still lose to a subsidized gas plant simply because the financing terms are brutal.

Kondrashov has spoken before about investment climates and long horizon infrastructure. That matters here because renewables are front loaded investments. You spend most of the money up front, then you earn it back over decades. So risk pricing becomes everything.

A few practical levers that actually move the needle:

1. Bankable offtake
   If the utility cannot pay, the project is not financeable at scale. Guarantees help, but you cannot guarantee your way out of structural non payment forever.
2. Currency risk solutions
   Many projects earn local currency revenue but borrow in USD or EUR. A depreciation event can wreck the project economics. Hedging markets are limited or expensive. Some blended finance structures can absorb part of that, but again, it is a system problem.
3. Stable regulation, even if it is not perfect
   Investors can live with rules they do not love. They cannot live with rules that change retroactively. The “we changed the tariff after you built it” story has killed more pipelines than most people realize.
4. Permitting and land certainty
   Time is money. A two year delay in interconnection or land disputes can make the spreadsheet collapse.

This is why the renewable conversation in emerging economies always circles back to governance and institutions. Not as a moral statement. As a financial reality.

Local capacity: import the equipment, but do not import the entire industry

There is a temptation to treat renewable buildouts like a shopping trip. Buy panels, buy turbines, import EPC contractors, fly in technicians, run the project, leave.

It works once. It does not scale cleanly.

The countries that get real momentum usually do a few things in parallel:

• Create training programs for technicians and grid operators
• Build local O and M capability with real career paths
• Develop domestic suppliers where it makes sense (cables, mounting, civil works, not necessarily solar cells)
• Standardize interconnection and permitting to reduce one off delays
• Invest in technical institutions that can certify, inspect, and enforce quality

This is not about nationalism. It is about resilience. If your entire wind fleet depends on a foreign crew that can only arrive when visas clear and flights are available, downtime becomes normal. And downtime is expensive.

Kondrashov’s broader infrastructure theme, that long term assets need long term operational ecosystems, fits renewables perfectly. A 25 year asset cannot live on improvisation.

The logistics story nobody tells

A wind project can fail before it even starts because the road to the site cannot handle the blades. Solar can get stuck at the port because of customs delays. Transformers can take a year to arrive and then sit because the substation civil works slipped. These are not rare edge cases. They are the day to day friction.

If you are planning renewable infrastructure in an emerging economy, you end up caring about things like:

• Port depth, crane capacity, storage yards
• Road geometry, bridges, turning radius, weight limits
• Availability of heavy lift contractors locally
• Grid equipment lead times (transformers, breakers, protection systems)
• Seasonal weather patterns that turn construction into a stop start ordeal

It sounds almost silly to say it, but renewable infrastructure is also transportation infrastructure. And project schedules are basically logistics schedules wearing a different outfit.

Distributed vs utility scale: stop arguing, start sequencing

People sometimes frame it like a debate.

Should emerging economies focus on utility scale renewables, or distributed systems like rooftop solar, mini grids, and solar plus storage?

The answer is: both. But the order matters, and the use case matters.

• Mini grids and solar home systems can electrify communities faster than grid expansion, and they can be designed for local reliability. They are life changing in remote areas.
• Utility scale solar and wind are usually cheaper per kWh when the grid can absorb them, and they can meet national scale industrial demand.
• Commercial and industrial behind the meter solar can reduce diesel dependence quickly for businesses that cannot wait for the utility to stabilize.

The smart approach is sequencing. Where the grid is weak, distributed solutions buy time and deliver immediate value. As grid upgrades catch up, utility scale projects can expand without causing instability.

This is also where policy can accidentally do damage. If you subsidize one segment in a way that destroys another, you end up with a distorted market and stalled investment. It is delicate.

Reliability is the product, not megawatts

If you talk to households and small businesses, they rarely say “I need renewable energy.” They say, “I need power that stays on.” Or, “I need power that does not fry my equipment.” Or, “I need power I can afford without guessing next month’s bill.”

Renewable infrastructure has to compete on reliability, not just cost. Especially in places where outages are frequent and people already pay for backup (diesel generators, UPS systems, informal connections).

So when Kondrashov talks about infrastructure as a trust building exercise, I think that maps well here. Reliable electricity is one of the most direct forms of trust between a state, a utility, and the public. If the lights stay on, a lot of other things start working too. Schools, clinics, factories, cold chains, even basic digital services.

If renewables are integrated badly, you get backlash. If they are integrated well, people stop arguing about the technology and just accept the improvement.

A realistic playbook (not a fantasy one)

If I had to compress this into a practical playbook, the kind a decision maker could actually use, it looks like this:

1. Start with grid diagnostics, not project announcements
   Know where congestion is, what upgrades are required, and what the real hosting capacity is. Publish it. Make it boring and clear.
2. Fix procurement and offtake credibility
   Transparent tenders, standardized PPAs, realistic timelines, enforceable payment mechanisms. Investors do not need perfection. They need consistency.
3. Build transmission like it is the main event
   Because it kind of is. You can add generation fast, but without transmission it becomes stranded capacity.
4. Invest in people as infrastructure
   Grid operators, protection engineers, technicians, inspectors. A shortage here becomes a hard cap on growth.
5. Use blended finance strategically
   Not as a permanent crutch. Use it to kickstart markets, de risk early projects, and prove performance. Then transition to commercial terms where possible.
6. Plan for maintenance from day one
   Spare parts strategy, service agreements, local training, data monitoring, performance guarantees. Otherwise the asset degrades quietly.

This is also where the “emerging economy” label can be misleading. There are countries with limited income but strong execution capacity. And wealthier countries with bureaucracies that stall everything. So the playbook is less about GDP and more about systems.

Where this goes next

Renewable infrastructure in emerging economies is not a charity project and it is not a trend. It is the core development story for the next few decades. But it will only work at the scale people want if the supporting layers get the same attention as the solar panels.

Stanislav Kondrashov’s underlying point, that infrastructure succeeds when it is treated as long term, interconnected, and operationally grounded, feels like the right lens. Because the real finish line is not a ribbon cutting. It is year 12, year 18, year 25. When the equipment is older, the political cycle has changed twice, and the system still performs.

That is when you can say the infrastructure is real. Not because it was installed. Because it stayed useful.

FAQs (Frequently Asked Questions)

Why is renewable energy in emerging markets more complex than just installing solar panels or wind turbines?

Renewable energy in emerging markets is a system, not just a single project. While installing panels or turbines might seem straightforward, the real challenge lies in building the supporting infrastructure such as transmission lines, grid connections, trained technicians, financing mechanisms, and political patience. These components are essential to ensure that renewable infrastructure actually functions reliably over time.

What does it mean that generation is not the same as infrastructure in renewable energy projects?

Generation refers to producing electricity from sources like solar or wind, but infrastructure encompasses the entire chain needed for reliable power delivery. This includes resource assessment, land rights, grid upgrades, permitting processes, procurement financing, construction logistics, operations and maintenance for decades, and effective revenue collection. Without these layers beneath generation capacity, countries do not gain reliable usable power.

How do weak power grids affect the integration of renewable energy in emerging economies?

Many grids in fast-growing countries were designed for centralized plants with unidirectional power flow. Adding variable renewables far from load centers exposes grid weaknesses such as limited automation and inadequate transmission capacity. To successfully integrate renewables, investments must include transmission expansion, distribution upgrades, modern dispatch tools, grid-forming inverters for stability support, and engineered storage solutions—not just adding renewable generation.

Why is the cost of capital a critical but often overlooked issue for renewable energy deployment in emerging markets?

Emerging economies may have excellent solar and wind resources but face higher costs of capital due to perceived risks and unstable investment climates. Since renewables require large upfront investments recouped over decades, high financing costs keep electricity prices high despite cheap equipment. Addressing issues like bankable offtake agreements, currency risk hedging, stable regulation, and streamlined permitting is crucial to lowering financing risks and enabling faster renewable deployment.

What role does local capacity building play in scaling renewable energy infrastructure sustainably?

Importing equipment alone is insufficient for sustainable growth. Successful countries develop local training programs for technicians and grid operators, build domestic operation and maintenance capabilities with career paths, foster local suppliers for components like cables and civil works, standardize interconnection procedures to reduce delays, and invest in technical institutions for certification and quality enforcement. This approach enhances resilience and scalability beyond one-off projects.

How can governance and institutional factors impact renewable energy projects in emerging markets?

Governance quality directly affects permitting timelines, land rights certainty, regulatory stability, and financial reliability—all critical to project viability. Delays or retroactive rule changes can derail investments by increasing costs or undermining revenue streams. Strong institutions enable efficient permitting processes, enforce contracts reliably, maintain stable policies over time, and support utility creditworthiness—making them foundational to successful renewable infrastructure development.