Europe's freezer economics are no longer one European cost curve.
This map translates non-household electricity prices into operational exposure for frozen food: cold storage, freezing lines, automated freezer warehouses, frozen distribution hubs and processors that hold temperature-controlled inventory around the clock.
Use this as a screening map, not as a site tariff quote
Eurostat's main non-household electricity comparison uses the medium consumption band of 500-2,000 MWh per year. Many large frozen plants and high-throughput automated warehouses can exceed that band. The country spread is still valuable for strategic screening, but final business cases need site contracts, load shape, demand charges, grid connection costs and consumption-band checks.
Energy cost is not only a purchasing issue
In frozen food, the power bill is shaped by refrigeration design, evaporator fans, door discipline, defrost strategy, thermal loading, blast-freezing profile, automation density, product dwell time and refrigerant transition. Two sites in the same country can have very different exposure if one runs at 10 kWh/m3/year and another at 30 kWh/m3/year.
Cheap electricity is becoming a hidden frozen food advantage, but only when it is paired with cold-chain density, logistics access and modern refrigeration assets.
The figures behind the exposure reading
The useful insight is not simply that energy is expensive. It is where electricity becomes a structural margin variable for frozen food operations.
What electricity-price tables do not show
Country price alone is not enough. The practical reading comes from combining price level, trend, tax friction and whether the operation is electricity-heavy or gas-sensitive.
Non-household electricity exposure by country
Values are Eurostat H2 2025 prices converted to EUR per 100 kWh. YoY is the year-on-year movement versus H2 2024 in national currency. Tax share is non-recoverable taxes and levies as a percentage of the total non-household electricity price.
Countries without a comparable Eurostat H2 2025 value are kept outside the core score. Where a credible external indicator is available, the card shows a secondary business electricity price. These secondary values are useful for context, but they are not used in the Eurostat-based exposure ranking or the 1 GWh cost table.
Method note: the numeric core layer uses Eurostat non-household electricity prices for consumers with annual consumption between 500 MWh and 2,000 MWh. Large cold-storage sites and energy-intensive processors may use negotiated contracts or higher consumption bands, so this map is an exposure-screening tool, not a site-level tariff quotation. Secondary indicators and proxy values are shown for visibility only and are not used in the Eurostat ranking.
Exposure bands: the practical interpretation
The bands are built from electricity price level. Trend, tax share and energy-use profile are then used to explain what kind of risk the country represents.
Energy efficiency, procurement, load flexibility and refrigeration modernization are direct margin-protection measures. These are the markets where every poorly controlled GWh is highly visible.
These are the markets where freezer performance, product dwell time, refrigeration age, energy contracts and automation payback should be modelled country by country.
Electricity still matters, but the final location reading becomes more dependent on logistics, labor, customer density, gas needs, product mix and cold-chain infrastructure maturity.
Low-cost power can support electricity-heavy cold storage and automated freezer capacity. But rising YoY signals in Norway, Türkiye, Bosnia and Herzegovina, Georgia and Sweden show that low absolute price should not be confused with zero volatility.
Finland is the lowest reported non-household electricity price in the Eurostat H2 2025 layer. The strongest use case is electricity-heavy cold storage; gas-sensitive processing still needs a separate energy reading.
These countries remain visible in the pan-European map, but their values come from a separate source layer or a clearly labelled proxy. They should not be ranked against the Eurostat H2 2025 core score because consumer bands, taxes, currencies, reporting periods and tariff structures differ.
Annual electricity cost per 1 GWh: full comparable layer
This converts the country price into a practical cold-chain cost. Formula: EUR per 100 kWh multiplied by 10,000. One GWh is useful because a modern 100,000 m3 cold store at around 10 kWh/m3/year uses roughly 1 GWh/year for refrigeration.
Highest to mid-range exposure
Medium-low to lowest exposure
Secondary indicators are visible, but not costed per GWh
Albania, Iceland, United Kingdom, Switzerland, Ukraine, Kosovo*, Andorra, Monaco, San Marino, Vatican City, Belarus, Russia, Armenia, Azerbaijan and Kazakhstan are kept visible with secondary indicators or proxy notes where available. They are not assigned a 1 GWh cost in this Eurostat-based table because the sources use different currencies, consumption assumptions, tax treatment, tariff bands or reporting periods.
What the 1 GWh gap does at site scale
One GWh can look abstract. The country gap becomes visible when it is multiplied by a freezer warehouse, a blast-freezing line or a multi-site cold-chain footprint.
Four cold-chain sensitivity checks
The lesson is not to relocate every operation to the lowest-price country. The lesson is to stop treating cold-chain energy as a generic European overhead.
What kind of operation reaches 1 GWh?
A modern and well-maintained 100,000 m3 cold store can be benchmarked around 10 kWh/m3/year for the refrigeration system. That translates to roughly 1 GWh/year for refrigeration. Older or weaker-performing cold stores can operate closer to 30 kWh/m3/year or more, which turns the same facility into a 3 GWh/year refrigeration case.
- 1 GWh/year is a realistic screening unit for a modern large cold store's refrigeration load.
- 3 GWh/year is a useful stress case for older or less efficient sites.
- 10 GWh/year is relevant for larger cold-chain footprints, multi-room operations or combined freezing and storage loads.
Cold-store translation: from macro data to freezer economics
Cold storage is where the map becomes operational. A modern facility and a poorly performing facility in the same country can produce radically different energy bills.
100,000 m3 cold store at 10 kWh/m3/year
A modern and well-maintained 100,000 m3 cold store can be benchmarked around 10 kWh/m3/year for the refrigeration system. That translates to roughly 1 GWh/year for refrigeration.
100,000 m3 cold store at 30 kWh/m3/year
Older references and broad cold-store surveys point to much higher energy use. At 30 kWh/m3/year, the same 100,000 m3 site moves from 1 GWh/year to 3 GWh/year.
Diagnostic layer: what kind of exposure is it?
Two countries can have similar total prices but different causes. That matters because the operational response is different.
Ireland's tax share is only 2.9%, so the issue is not mainly non-recoverable levies. It is the underlying electricity cost structure that makes frozen storage and freezing expensive.
Best response: procurement strategy, flexible load, metering by room and line, contracted hedging and energy-efficiency capex.
Poland has the highest non-recoverable tax and levy share at 36.0%. Cyprus combines severe total price with a 29.9% tax share.
Best response: monitor policy changes, separate base electricity cost from levy cost and avoid building business cases on temporary relief assumptions.
Moldova rose +65.5% year on year, Norway +21.0% and Türkiye +19.5%. The useful signal is not only today's price. It is the speed at which assumptions can change.
Best response: refresh energy assumptions every semester, stress-test supplier pricing and track power-cost pass-through clauses.
Finland, Sweden and Norway are strong electric-storage candidates, but Sweden and Finland have high gas-price readings. Spain and Portugal can look more balanced where electricity and process heat both matter.
Best response: separate electric refrigeration, electric freezing and thermal process loads before choosing a production or hub location.
The most exposed sites are not just in high-price countries. They are high-price-country sites with poor kWh/m3/year, aging refrigerant systems and limited metering.
Best response: connect F-gas planning, asset age, energy monitoring and capex sequencing in one refrigeration roadmap.
Electricity-heavy or gas-sensitive? The processing overlay
This is the most important strategic split. Cold storage is mainly an electricity story. Some frozen processing plants are a combined electricity and thermal-energy story.
Where the electricity map is most decisive
These operations are exposed to compressors, fans, defrost, automated movement, freezer rooms and thermal leakage. Low electricity can become a real operating advantage.
- Cold storage and 3PL temperature-controlled warehousing.
- Blast freezing, spiral freezing, tunnel freezing and IQF lines.
- Automated freezer warehouses, shuttles and high-bay systems.
- Frozen cross-docks, marshalling areas and distribution hubs.
- Operations with long product dwell time and high door traffic.
Where the Nordics need a caveat
Eurostat's H2 2025 non-household gas average was €6.05 per 100 kWh. Sweden, Finland and Germany were among the highest gas markets; Bulgaria, Greece, Portugal and Belgium were among the lowest.
Practical reading: Nordics look strong for electric cold storage. Iberia can look stronger for mixed operations that combine freezing with process heat.
Strategic country archetypes
This section turns the data into a location-decision lens. It is intentionally practical: where to defend margins, where to revisit investment cases and where to ask harder questions.
The operational takeaway
Frozen food is not only competing on labor, land, raw materials or retail access. It is increasingly competing on the cost of keeping every cubic meter below zero. The cheapest frozen hub is not necessarily the country with the cheapest power, but the country where power price, infrastructure, product mix and refrigeration quality fit together.
Where electricity exposure enters the frozen operation
The same electricity price affects different operations in different ways. This matrix shows what each part of the value chain should actually do with the map.
What this means for cold storage operators
The practical question is not whether energy matters. It is whether the operator can prove where the kWh go.
- Benchmark kWh/m3/year by room, not only at whole-site level.
- Separate compressors, evaporator fans, defrost, lighting, doors and automation loads.
- Measure door-open minutes per shift and air-infiltration impact.
- Use floating head pressure, variable-speed fans and defrost-on-demand where viable.
- Compare sites using country-specific electricity prices before ranking capex projects.
What this means for frozen processors
Frozen processors should stop treating energy as one line item. Electricity-heavy and gas-sensitive operations need different location logic.
- Split freezing, storage, thermal processing and packaging energy into separate cost pools.
- Track kWh/tonne by product family and by line.
- Use energy sensitivity in private-label pricing and long-term contracts.
- Check whether high electricity prices and refrigerant transition capex overlap at the same site.
- Do not read low electricity as low total energy cost if process heat is material.
F-gas: the second exposure layer
The EU F-gas Regulation 2024/573 was adopted on 7 February 2024 and has applied since 11 March 2024. The quota system creates a steeper HFC reduction path, with HFC phase-out in the EU by 2050.
- Old refrigeration systems in high-electricity markets carry double exposure: power bill plus transition capex.
- Natural refrigerant systems can improve long-term resilience but require engineering skill and maintenance capability.
- Leak prevention, recovery, recycling and reclamation become part of asset strategy, not only compliance.
- Energy monitoring should be linked to refrigerant choice and equipment age.
Capacity growth makes the map more important
GCCA reported that the Global Top 25 temperature-controlled warehousing and logistics businesses operated 7.76 billion cubic feet, or 219.7 million m3, of temperature-controlled space in 2026. The European Top 10 reached 1.6 billion cubic feet, or 45.3 million m3.
- More capacity means more fixed energy exposure.
- Automated freezer warehouses can amplify both efficiency gains and power dependence.
- Energy geography should be part of site selection, not only engineering optimization.
- Cold-chain density still matters: cheap electricity without logistics density is not enough.
When the exposure reading should change
The map should be re-read after each Eurostat semester and whenever electricity prices, tax shares, gas markets, refrigerant rules or cold-store efficiency assumptions change materially.
Signals that would increase exposure
- Electricity prices rising again in high-cost countries.
- Positive YoY jumps in medium-cost countries, especially Romania-like or Moldova-like signals.
- Higher non-recoverable levies for non-household users.
- Faster capex pressure from F-gas transition and refrigerant availability.
- Cold-storage growth in high-price markets without matching efficiency gains.
- Secondary-source countries showing high national business electricity tariffs.
Signals that would reduce exposure
- Sustained electricity-price easing across several semesters.
- Cold stores reducing kWh/m3/year through measured upgrades.
- Improved energy contracts, hedging or load-flexibility revenue.
- Better metering of compressors, fans, defrost and doors.
- New cold-chain capacity in low-electricity markets with strong logistics access.
- Clearer comparable data becoming available for currently secondary or proxy countries.
FAQ
Short answers for readers who need the logic of the map quickly.
Is this an official Eurostat cold-chain index?
No. Eurostat publishes electricity and gas price data. This is a FrozeNet operational interpretation for frozen food and cold-chain decision-making.
Why use non-household electricity prices?
They are the most comparable Europe-wide public proxy for business electricity exposure. The specific Eurostat band used here is 500-2,000 MWh per year.
Why are some countries marked secondary or proxy?
Because the Eurostat H2 2025 non-household layer does not provide a directly comparable value for them. Where a credible external value exists, it is shown as a secondary indicator. Where only a neighbouring-system reference is usable, it is marked as proxy and kept outside the ranking.
Does cheap electricity make a country a frozen food hub?
No. It is one advantage. Hub logic still needs logistics, labor, land, ports, retailers, processors, grid reliability, skills and capital.
What is the biggest practical gap?
Ireland versus Finland: about €180.4k per 1 GWh per year. At 10 GWh/year, the screening gap becomes about €1.8 million per year.
Why not rank only by electricity price?
Because a frozen bakery plant, a 3PL freezer warehouse and a frozen ready-meal factory do not have the same energy profile. Gas exposure, dwell time and process heat change the reading.
Evidence base
Used for EU average, country rankings, highest/lowest countries, year-on-year movement, consumption-band note and source dataset nrg_pc_205.
Used for country values in the numeric map, including total price, price without taxes, non-recoverable tax component, tax share and YoY movement. Values were converted from EUR/kWh to EUR/100 kWh and then to annual cost per 1 GWh.
Used for the gas overlay: EU average EUR 6.05 per 100 kWh, Sweden EUR 10.65, Finland EUR 8.63, Germany EUR 7.13, Bulgaria EUR 4.14, Greece EUR 4.24, Portugal and Belgium EUR 4.81.
Used for the 100,000 m3 modern cold-store benchmark of 10 kWh/m3/year for refrigeration, the below-5 kWh/m3/year indication for very large stores and the refrigeration plant share of site energy.
Used for the wide range of observed SEC values, the historic 30-50 kWh/m3/year benchmark and the point that cold-store energy performance has large improvement potential.
Used for the temperature-controlled warehousing capacity context: 7.76 billion cubic feet globally among the Top 25 and 1.6 billion cubic feet among the European Top 10.
Used for refrigerant transition context: Regulation (EU) 2024/573 adoption and application dates, steeper HFC quota reduction and HFC phase-out in the EU by 2050.
Used only for the secondary indicator layer: Albania, Iceland, Switzerland, Ukraine, Andorra, Belarus, Russia, Armenia, Azerbaijan and Kazakhstan. Values are business electricity rates in USD/kWh, shown as 2023-2026 averages. They are not Eurostat-comparable.
Used for the United Kingdom secondary indicator: 24.3 pence per kWh average non-domestic electricity price including Climate Change Levy in Q2 2025.
Used for Monaco tariff context. SMEG publishes professional electricity tariff structures including HTA active-energy tariff ranges. This is a tariff range, not a national average and not comparable with the Eurostat core layer.
Used for Kosovo context. IMF reported a non-household tariff reference of about 8.4 euro cents per kWh in 2023. Reuters reported that larger Kosovo companies were pushed toward open-market electricity exposure in 2025. The Kosovo value is therefore treated as a dated reference, not as a current comparable tariff.
Used only as context for San Marino and Vatican City. No reliable public business electricity average comparable to the Eurostat H2 2025 layer was found. Italy's Eurostat H2 2025 non-household value is shown as a proxy only and is not treated as a national tariff.
Electricity uses nrg_pc_205. Natural gas uses nrg_pc_203. The infographic uses Eurostat's non-household price level including non-recoverable taxes and levies, excluding VAT and other recoverable taxes.
Reading note: electricity prices, gas prices, tax shares, cold-store energy benchmarks, GCCA capacity data and F-gas regulation are measured with different boundaries. They should not be added into one official metric. The Eurostat H2 2025 values form the core comparable layer. Secondary indicators and proxy values are shown only to avoid leaving important countries invisible, but they are not used in the Eurostat ranking or the 1 GWh cost table. Kosovo* is listed following Eurostat-style naming conventions; this does not imply a political position.