Solar incentives in Hungary 2026: Market Guide and Incentives

Hungary added just over 1,030 MW of new solar capacity in 2025. That brought cumulative installed PV to nearly 8.3 GW, according to the Hungarian Energy Ministry via Serbia Energy (2025). It was the third consecutive year of gigawatt-scale growth. The country also recorded one of Europe’s highest solar shares. Solar covered 42% of electricity demand in June 2025, according to Ember (2025).

The policy story behind those numbers is unusual. Hungary met its original 2030 solar target of 6 GW six years early. It has already raised the target to 12 GW, according to Hungary Today (2024). At the same time, the government has stopped offering new feed-in tariffs or contracts for difference for renewable generators, as noted by Schoenherr (2026). The incentive money is now flowing overwhelmingly into batteries.

For homeowners, installers, and EPCs, the practical question in 2026 is not whether solar works in Hungary. It is how to capture value now that export compensation is low and storage subsidies are the main policy lever. This guide covers every active Hungary solar incentive. It also explains the shift from net metering to gross settlement, the OETP residential battery program, and the Jedlik Ányos business scheme. We cover METÁROLÓ utility-scale storage, taxes, current costs, and realistic payback. For a broader European comparison, see our European solar incentives guide. For installers designing Hungarian projects, solar design software with local tariff and self-consumption logic can turn a complex quote into a clear decision. If you write proposals for Hungarian clients, model payback, self-consumption, and stacked incentives automatically, then generate solar proposals in minutes. Check pricing or book a demo to see how SurgePV handles Hungary.

In this guide:

• Hungary solar market context and 2030 targets
• Latest 2026 policy status and incentive table
• Net metering vs gross settlement: what changed
• OETP 2026 residential battery subsidy explained
• Jedlik Ányos business storage and solar grants
• METÁROLÓ utility-scale storage scheme
• Tax, VAT, and depreciation treatment
• Solar installation costs and payback in Hungary
• Utility-scale and commercial merchant economics
• Common mistakes, tradeoffs, and installer tips
• FAQ

Solar incentives in Hungary 2026: Quick Answer

Hungary’s solar incentive framework in 2026 is best understood as a post-FiT system. The country built its solar boom on net metering and the earlier KÁT feed-in tariff, but those doors are now closed to most new entrants. The remaining support is structured around storage and self-consumption.

The practical impact is clear. A Hungarian household that installs solar today should size the system for daytime use. It should add a battery if it qualifies for OETP. It should also assume that exported electricity will be paid at a small fraction of the retail price. The financial case rests on avoided grid purchases, not export revenue.

Hungary solar market and policy status 2026

Hungary’s solar market has grown faster than almost anywhere in Central Europe. The country went from roughly 700 MW of solar in 2018 to nearly 8.3 GW by the end of 2025. That figure comes from Energy Ministry data reported by Serbia Energy (2025). That expansion was driven by household net metering, small-business installations, and large industrial solar parks. Many of the large parks were built by or for automotive and manufacturing investors.

Key market data

Hungary’s average annual PV output is roughly 1,100–1,300 kWh per installed kWp, depending on location and orientation. Budapest sits close to the middle of that range. It achieves about 1,252 kWh/kWp/year under optimal tilt and azimuth, according to BME research using Global Solar Atlas data. Southern and eastern locations such as Kecskemét can reach the upper end of the range.

Policy reset: from generation subsidies to storage subsidies

Two policy shifts define 2026. First, no new feed-in tariffs or CfDs are available for renewable generators. Second, almost every remaining public support program is tied to energy storage. The logic is straightforward. Hungary’s grid is now saturated with solar during midday. Wholesale prices turn negative or very low on sunny days. The system needs storage to absorb the surplus.

This shift means installers and EPCs must stop selling solar on the old promise of “sell your surplus back to the grid at a good price.” The new promise is “store your surplus and use it yourself.” A solar design platform that models Hungarian retail rates, export settlement rates, and battery dispatch is essential for producing believable payback numbers.

Net metering vs gross settlement in Hungary

Understanding the difference between net metering and gross settlement is the single most important step for any Hungarian solar project in 2026. The old net metering regime made solar attractive because every exported kilowatt-hour offset a grid-purchased kilowatt-hour at the retail rate. The new gross settlement regime breaks that link.

How Hungarian net metering worked

Under the earlier net metering framework, small rooftop systems — generally up to 50 kWp — could run their meter backward. Annual netting meant surplus solar generation in summer could offset winter grid consumption. A kilowatt-hour exported during the day was worth the same as a kilowatt-hour imported at night. This encouraged households to size systems close to their annual consumption and treat the grid as a free battery.

How gross settlement works

Under gross settlement, exported solar is sold to the grid at a separate, much lower price. The household still buys grid electricity at the full retail rate. The two flows are settled in money, not in kilowatt-hours. As described by GSL Energy (2026), Hungary has moved from a grid-centric model to a user-centric model where self-consumption optimization determines return on investment.

A Hungarian household may receive roughly 5 Ft/kWh for exported midday solar while paying 7–14 times that for evening grid power, according to Frisss.hu (2026). At an exchange rate of roughly 400 Ft/EUR, 5 Ft/kWh is about €0.0125/kWh, while retail evening power can be €0.10–€0.15/kWh or more.

Why the shift changes system design

Under net metering, oversizing made sense. Under gross settlement, every exported kilowatt-hour loses most of its value. The design priority becomes:

• Size to daytime load, not annual load.
• Add storage to shift midday generation to evening use.
• Shift flexible loads — washing machines, EV chargers, heat pumps — into solar production hours.

A 5 kWp system that self-consumes 70% of its output will usually deliver a better return than a 10 kWp system that exports 60%. The smaller system wins even though the larger one produces more total energy.

OETP 2026: Hungary’s residential battery subsidy

The Otthoni EnergiaTároló Program (OETP) is the most important direct solar-related subsidy for Hungarian households in 2026. It does not pay for panels alone, but it makes battery storage cheap enough to change residential project economics.

Program basics

The program is administered through the Hungarian household energy platform (HMKE/FEAK) and requires digital data reporting. Funded systems must transmit data to the national energy platform at regular intervals, typically every five minutes, as outlined by GSL Energy (2026).

Why OETP is structured around storage

OETP exists because the old net metering model created a grid problem. Households exported large amounts of midday solar into a distribution network that was not designed for two-way power flows. Voltage rose, inverters tripped, and valuable generation was curtailed. By paying for batteries and requiring zero-export capability, the government pushes households to absorb their own generation and reduce stress on the grid.

Typical household system under OETP

A common application might look like this:

• 4–5 kWp rooftop PV
• 10 kWh LiFePO4 battery
• Hybrid inverter, 5 kW or smaller
• Smart energy management with zero-export control
• Total storage cost before subsidy: HUF 3.0–3.5 million (~€7,500–€8,800)
• Net storage cost after HUF 2.5 million grant: HUF 0.5–1.0 million (~€1,300–€2,500)

The grant can cover roughly 80% of the battery cost. That makes the payback contribution of the battery attractive, even though batteries add upfront capital.

Jedlik Ányos: business storage and solar grants

The Jedlik Ányos Energy Program is the main support instrument for Hungarian companies that want to combine solar with storage. Unlike OETP, it is not limited to households, and it accepts larger projects.

Program basics

Details are drawn from BDO Hungary (2025) and PwC Hungary (2025).

What the grant pays for

A Jedlik Ányos project must include an energy storage unit. Beyond that, eligible costs can include:

• Solar PV or other renewable generation capacity linked to the storage system
• Grid connection and civil works
• Feasibility studies and project management
• Intangible assets such as software and monitoring systems
• A three-year maintenance commitment

The cap on renewable generation — up to 33% of total eligible costs — makes it clear that storage is the primary purpose and solar is a permitted add-on.

Corporate tax deduction for storage

In addition to grants, Hungarian companies can deduct up to 50% of eligible costs for new electrical energy storage investments from corporate income tax, spread over up to six tax years, according to Schoenherr (2026). Hungary’s corporate income tax rate is a flat 9%, as reported by TaxRavens (2026), so the absolute tax shield is modest, but it improves project cash flow.

Network charge exemption

New BESS installations also benefit from partial exemption from network charges until the end of 2026. This reduces the ongoing cost of operating a battery and improves the business case for peak shaving and energy arbitrage.

METÁROLÓ: utility-scale storage support

The METÁROLÓ scheme targets grid-scale battery storage. It is the utility counterpart to OETP and Jedlik Ányos.

The scheme is important for the solar market because it addresses the grid congestion that limits new solar connections. Without enough storage, midday solar oversupply forces curtailment and pushes wholesale prices down. METÁROLÓ is Hungary’s main tool for adding the flexibility the grid needs to absorb more PV.

Tax, VAT, and depreciation

Hungary’s tax treatment of solar is generally neutral or favorable, but the high VAT rate is a real cash-cost for households.

VAT on residential solar

Hungary applies a 27% standard VAT rate to most goods and services, including residential solar installations, according to Numeral (2026). Unlike Germany, Spain, or the UK, Hungary has not introduced a 0% or reduced VAT rate for residential solar as of 2026. This makes the OETP battery grant even more important, because it directly offsets the all-in cost including VAT.

VAT on commercial solar

Businesses registered for VAT can generally reclaim the 27% input VAT on solar and battery installations. The net cost impact is therefore neutral for VAT-registered companies, though cash flow is affected until the refund is received.

Depreciation and corporate tax

For businesses, solar and battery assets are depreciated as fixed assets. The standard straight-line depreciation rate for solar systems is often around 14.5% per year, implying roughly a seven-year write-off, as described by napelemrendszerek.hu. Combined with the 9% corporate tax rate and the storage tax deduction, the after-tax cost of a C&I solar-plus-storage project can be materially lower than the sticker price.

Income tax for households

Self-consumed solar reduces the electricity bill and is not treated as taxable income. Export income is settled through the electricity supplier and is generally not significant enough to create separate income-tax issues for residential prosumers.

Solar costs and payback in Hungary

Hungary combines moderate solar irradiance, low retail electricity prices, and a post-net-metering regime. The result is a payback picture that is slower than high-tariff markets like Germany or Italy but still attractive for households and businesses with high self-consumption. For a broader cost benchmark, see our solar installation cost per kWp Europe guide. To model a specific Hungarian project, use a generation and financial tool that handles self-consumption, storage dispatch, and local tariffs. See our solar payback period by country analysis for cross-market comparisons.

Solar installation costs Hungary 2026

Residential costs are an industry-observed range based on regional Central European benchmarks and Hungarian installer quotes. A 5 kWp residential system therefore costs roughly €5,000–€6,500 before any battery or subsidy.

Electricity prices

Hungary had the lowest household electricity price in the EU in the second half of 2025 at €0.1082/kWh, according to Eurostat (2026). Industrial prices are higher, with the industrial sector paying roughly 66.5 HUF/kWh in October 2025, according to Intratec (2026). At roughly 400 HUF/EUR, that is about €0.17/kWh.

Low household tariffs extend residential payback. High C&I tariffs, plus the ability to reclaim VAT and claim grants, make business payback faster.

Worked example: 5 kWp residential system in Budapest

Consider a household in Budapest with a 5 kWp rooftop system costing €6,000 all-in, before battery. The system produces about 6,250 kWh per year using a specific yield of 1,250 kWh/kWp/year. The household self-consumes 35% on-site and exports 65%.

• Self-consumed energy: 2,188 kWh × €0.11/kWh = €241/year
• Exported energy: 4,063 kWh × €0.0125/kWh = €51/year
• Total annual benefit: €292/year
• Simple payback: €6,000 / €292 = 20.5 years

That payback is too long for most households. Now add a 10 kWh battery costing €7,500 before the OETP grant. The grant covers 80%, so the net battery cost is €1,500. Total system cost becomes €7,500. The battery raises self-consumption from 35% to 70%.

• New self-consumed energy: 4,375 kWh × €0.11/kWh = €481/year
• New exported energy: 1,875 kWh × €0.0125/kWh = €23/year
• Total annual benefit: €504/year
• Simple payback: €7,500 / €504 = 14.9 years

If the household also shifts flexible loads and achieves 75% self-consumption, the payback drops closer to 13 years. With tariff inflation and rising grid prices, the effective payback is shorter. These are illustrative numbers; actual costs and subsidies should be confirmed with a local installer.

Commercial payback

A 100 kWp C&I rooftop system costing €90,000 before a 40% Jedlik Ányos grant has a net cost of €54,000. If it produces 125,000 kWh/year with 80% self-consumption and avoids electricity priced at €0.17/kWh:

• Self-consumed value: 100,000 kWh × €0.17/kWh = €17,000/year
• Export value: 25,000 kWh × €0.03/kWh = €750/year
• Total annual benefit: €17,750/year
• Simple payback: €54,000 / €17,750 = 3.0 years

This is why Hungarian commercial solar remains attractive despite the end of feed-in tariffs. Businesses consume power during the day, self-consumption rates are high, and C&I tariffs are well above residential rates.

Utility-scale and commercial merchant solar

Large-scale solar in Hungary is now a merchant play. Developers secure grid connection, sell power into the wholesale market or under corporate PPAs, and absorb price risk.

Market structure

No new feed-in tariffs or CfDs are available for renewable generators, according to Schoenherr (2026). New projects must earn revenue from:

• Wholesale market sales
• Corporate power purchase agreements (PPAs)
• Industrial self-consumption schemes
• Merchant solar plus co-located storage

The rise of negative or near-zero midday wholesale prices makes standalone merchant PV risky. Co-located storage allows developers to shift solar generation into higher-price evening hours and to provide grid services.

Grid connection bottleneck

The biggest constraint on new large solar in Hungary is not subsidy; it is grid capacity. Developers have faced long delays in securing new connection rights. A competitive grid-capacity allocation mechanism was expected to launch in Q2 2026, with tenders held at least every two years, according to Schoenherr (2026). Projects that include battery or balancing capacity, hybrid technology, and strong financial guarantees receive preference.

Corporate PPAs

Hungary’s industrial base — automotive, battery manufacturing, electronics — has strong demand for green power. Corporate PPAs allow large consumers to lock in long-term prices and meet Scope 2 emissions targets. For developers, a PPA with a creditworthy offtaker is usually more bankable than pure merchant exposure.

Common mistakes and tradeoffs

Hungarian solar in 2026 rewards careful design. These are the most common errors and the tradeoffs every buyer should understand.

Mistake 1: Designing for net metering

Many quotes still assume exported solar is worth the retail rate. Under gross settlement, that assumption overstates returns by a large margin. Every proposal should use the current export settlement rate, not the retail tariff, for surplus generation.

Mistake 2: Oversizing without storage

A larger system produces more energy, but if most of it is exported at €0.01–€0.03/kWh, the incremental panels may never pay back. Size to daytime consumption first, then add storage, then consider extra panels only if they can be self-consumed or stored.

Mistake 3: Ignoring OETP technical requirements

OETP rejects applications that do not meet the technical rules. The battery must be at least 10 kWh, DC-coupled or compliant with the high-voltage/zero-export rules, and able to report data to the national platform. Using non-listed inverters or offline batteries can disqualify the grant.

Tradeoff: Battery cost vs subsidy timing

Battery prices are falling, but OETP is budget-limited. Waiting for cheaper batteries risks missing the grant window. Applying early locks in the subsidy but requires completing the project within the deadline.

Tradeoff: Residential vs business economics

Households face low retail tariffs and 27% VAT, so payback is longer. Businesses face higher tariffs, can reclaim VAT, and can access Jedlik Ányos grants, so payback is shorter. The same solar hardware produces very different returns depending on the consumer category.

Tradeoff: Self-consumption vs export

The value gap between self-consumed and exported solar is the largest it has ever been in Hungary. Every design decision — system size, battery capacity, load shifting — should aim to move generation from the export column to the self-consumption column.

FAQ

What solar incentives are available in Hungary in 2026?

Active Hungary solar incentives in 2026 include the OETP residential battery storage grant, the Jedlik Ányos business storage grant, and the METÁROLÓ utility-scale storage scheme. Companies can also deduct up to 50% of eligible new storage costs from corporate income tax. No new feed-in tariffs or contracts for difference are available for new solar-only generators.

Is net metering still available in Hungary in 2026?

Full retail-rate net metering is no longer the default for new Hungarian prosumers. The market has shifted toward gross settlement, where exported solar is paid at a low market or avoided-cost rate while grid imports remain priced at the full retail tariff. This makes self-consumption and battery storage the main sources of value.

What is the OETP 2026 residential battery subsidy?

The Otthoni EnergiaTároló Program (OETP) is a HUF 100 billion residential storage subsidy launched in January 2026. Eligible households can receive up to HUF 2.5 million (roughly €6,200) in non-refundable support for a battery system. Systems must be at least 10 kWh, DC-coupled, high-voltage capable, and able to operate with zero grid feed-in. Applications opened on February 2, 2026.

How much does a residential solar system cost in Hungary in 2026?

Residential solar in Hungary typically costs approximately €1,000–€1,300 per kWp all-in, including panels, inverter, mounting, cabling, labor, permits, and grid connection. A 5 kWp system therefore costs roughly €5,000–€6,500 before any battery or subsidy. Adding a 10 kWh battery adds roughly €4,000–€6,000 before the OETP grant.

What is the solar payback period in Hungary?

Residential solar payback in Hungary is typically 7–11 years for a system sized to daytime consumption. Adding a subsidized battery can shorten payback by raising self-consumption, because the value of a self-consumed kilowatt-hour is far higher than the low export settlement rate. Exact payback depends on system cost, self-consumption ratio, retail electricity price, and subsidy uptake.

What business incentives are available for commercial and industrial solar in Hungary?

Hungarian businesses can access the Jedlik Ányos Energy Program, which offers 30–50% non-refundable CAPEX grants for energy storage and linked renewable generation. Companies can also deduct up to 50% of eligible costs for new electrical storage investments against corporate income tax over up to six years. New BESS installations benefit from partial network-charge exemption until the end of 2026.

What is the METÁROLÓ subsidy scheme?

METÁROLÓ is Hungary’s utility-scale battery storage support scheme under the EU Recovery and Resilience Facility. It provides a non-refundable CAPEX grant combined with a ten-year contract for difference for 600 MW of new grid-scale storage. The first-round application window has closed, with commercial operation due by April 30, 2026, and a second round is anticipated later in 2026.

Are solar exports taxed in Hungary?

Self-consumed solar electricity reduces the electricity bill directly and is not treated as taxable income for households. Export income for prosumers is settled through the supplier at market-linked rates and falls under normal electricity supply rules. Businesses account for solar systems as fixed assets, recover VAT on installation costs, and depreciate the investment against taxable income.