- \n
- Current and Forecast Fuel and Energy Prices in 2026<\/a><\/li>\n
- Cost to Drive 100 km: Combustion vs Electric<\/a><\/li>\n
- Electric Charging Prices: Home vs Public Stations<\/a><\/li>\n
- Tariffs G11 and G12 \u2013 How to Choose Best?<\/a><\/li>\n
- Changes in the Electric Vehicle Charging Market<\/a><\/li>\n
- When Is an Electric Car Cheaper to Run?<\/a><\/li>\n<\/ul>\n
Current and Forecast Fuel and Energy Prices in 2026<\/h2>\n
When analysing the profitability of driving an EV in 2026, one cannot avoid the broader context of fossil fuel and electricity prices. After a turbulent period in 2022\u20132024 the market is gradually stabilising, but it remains influenced by geopolitical tensions, EU climate policy and growing energy demand across the economy. In 2026 average retail prices for petrol and diesel in Poland are expected by most analysts to remain in a range similar to 2023\u20132024 realities, with a slight upward tendency resulting from further implementation stages of the “Fit for 55” package and rising CO\u2082 allowance costs. In other words: do not expect spectacular drops in liquid fuel prices, rather a slow “creeping” increase with frequent local fluctuations tied to crude oil quotes on world markets and the z\u0142oty-to-dollar exchange rate. At the same time, fuel stations show increasing disparities between networks \u2013 large corporations try to maintain margins and invest in infrastructure (including HPC chargers), while smaller regional stations often compete on price, which has a limited effect on the national average refuelling cost.<\/p>\n
The electricity market in 2026 looks different than a few years earlier: after a period of drastically high wholesale prices, a relative calming is underway, but retail prices for households and small businesses are still higher than before the energy crisis. Two factors play a key role here \u2013 first, the gradual end of tariff freezes and interventionist protection mechanisms; second, the growing share of RES in the energy mix, which on one hand stabilises prices over several years, but on the other requires costly investments in grids and energy storage. For EV drivers the most important are concrete tariff rates for household G tariffs and special “electric” two-rate and weekend offers. In 2026 most energy providers introduce products tailored to EV users: cheaper electricity at night (often between 22:00 and 6:00) and during certain midday hours when PV generates surplus. At the same time, rates at public charging networks vary significantly depending on power and location: AC chargers (up to 22 kW) in office or shopping centre car parks often maintain moderate prices and some offer preferential rates for customers, whereas fast and ultra-fast DC stations at motorways and expressways are priced higher, reflecting both infrastructure cost and a greater “convenience premium”. Forecasts for H2 2026 suggest the gap between home socket energy cost and public chargers will persist or even widen \u2013 home charging will remain the relatively cheapest way to replenish batteries, especially for owners of their own PV. Simultaneously, an increasing number of dynamic billing models is likely, where price per kWh depends on current grid load and RES supply, allowing very cheap charging in overproduction “windows” but requiring drivers to be flexible and use apps tracking current rates. Against unpredictable petrol and diesel prices, electricity becomes gradually more “regulated” and dependent on national legislative decisions \u2013 this means lower risk of sudden price spikes caused by global crises, although national energy policy and the pace of the transition to RES and new gas or nuclear capacity matter more. In 2026 it is clear that although both fossil fuels and electricity remain under cost pressure, their cost structures differ: in liquid fuels global factors and excise taxes dominate, while for electricity investments in grids, EU and national regulations and market organisation matter, creating different price-risk profiles for drivers of combustion and electric<\/a> cars.<\/p>\n
Cost to Drive 100 km: Combustion vs Electric<\/h2>\n
Comparing the cost of driving 100 km with a combustion car and an electric car in 2026 requires a few realistic assumptions on energy prices and typical fuel consumption. For a compact petrol car average consumption is assumed at 6.5\u20137.5 l\/100 km in mixed driving, for diesel around 5\u20136 l\/100 km, while a typical segment C electric car uses on average 15\u201318 kWh\/100 km in real conditions. If we assume Pb95 petrol price in 2026 stays around 6.5\u20137.5 PLN\/l and diesel 6.7\u20137.7 PLN\/l, the cost to drive 100 km with a petrol car will be roughly 45\u201355 PLN (7 l \u00d7 6.5\u20137.5 PLN), and diesel 35\u201345 PLN (5.5 l \u00d7 6.7\u20137.7 PLN). For an electric car the calculation is more complex because the key factor is where and when you charge. For home charging under a single-rate G11 tariff at about 0.90\u20131.10 PLN\/kWh including distribution fees, the cost per 100 km is roughly 14\u201320 PLN (16 kWh \u00d7 0.90\u20131.10 PLN), while in night two-rate tariffs (e.g. G12, G12w, new dynamic tariffs) the price can drop to 0.55\u20130.75 PLN\/kWh, translating to only 9\u201313 PLN per 100 km. Using public AC chargers 11\u201322 kW, where 2026 prices will likely range around 1.50\u20132.20 PLN\/kWh, 100 km may cost 24\u201335 PLN. Even higher rates apply at fast DC chargers (50\u2013150 kW and more), where depending on operator and location real 2026 prices could reach 2.20\u20133.00 PLN\/kWh, meaning 35\u201350 PLN per 100 km \u2013 a level approaching petrol car costs. These differences show the question “is an EV cheaper?” has no single answer \u2013 it depends on the mix of charging methods the driver uses and how they can optimise energy use according to tariffs. Also remember EV consumption is more sensitive to driving style and speed: on highways at 120\u2013140 km\/h real consumption can rise to 20\u201323 kWh\/100 km, increasing trip cost by ~20\u201330%, whereas in the city with regenerative braking consumption can drop to 13\u201314 kWh\/100 km. For combustion cars the city vs non-city differences are significant too, but they play out differently \u2013 in traffic jams fuel consumption can rise drastically, while EVs are relatively efficient in congested conditions.<\/p>\n
\n![\"Electric](\"https:\/\/factoryformen.com\/wp-content\/uploads\/2026\/03\/Koszt__adowania_Samochodu_Elektrycznego_w_2026___Czy_To_Si__Op_aca_-1.webp\")
\n<\/a><\/p>\nWhen comparing the cost per 100 km, you should also account for additional factors affecting the total energy cost for EV drivers. First, some users invest in photovoltaic installations and energy storage, which over time can reduce the kWh cost for charging the car to around 0.20\u20130.40 PLN (counting amortisation and fixed fees), implying a theoretical cost per 100 km of 3\u20137 PLN. Even if you cannot always charge exclusively from PV surplus and sometimes draw grid energy at higher prices, average 100 km cost with home charging and PV usually remains significantly lower than refuelling. Second, charging network operators in Poland increasingly offer subscription programs and loyalty packages, where the driver pays a fixed monthly fee in exchange for a lower kWh rate or a certain energy bundle. For people with high mileages (40\u201360k km\/year, e.g. fleets, taxis, couriers) this can reduce the average 100 km cost at fast chargers to levels close to home grid electricity at standard rates, improving EV competitiveness vs diesel on longer routes. Third, charges such as capacity, RES or cogeneration fees, while increasing household kWh cost, are spread over many kilometres for an EV; the more you drive, the lower the unit cost of these fixed fees per 100 km. Combustion cars do not benefit from this “spreading” effect \u2013 each additional kilometre means direct fuel expense. From a purely economic perspective, in 2026 the difference in energy cost per 100 km between an average petrol car refuelled at stations and an EV charged mainly at home can still reach 60\u201380% in favour of the EV; versus diesel it is usually 40\u201360%. However, if an EV driver relies almost exclusively on fast DC chargers on the road, the EV advantage can shrink to a few tens of percent or disappear in extreme cases \u2013 especially in big cities and with cars that have high energy consumption. Therefore the real 100 km cost depends primarily on the usage profile: homeowners with night charging and possibly PV will calculate costs in single or low double-digit zlotys, while drivers dependent on public chargers in city centres may approach combustion car costs despite the EV drivetrain’s overall efficiency advantage.<\/p>\n
Electric Charging Prices: Home vs Public Stations<\/h2>\n
In 2026 the main cost split for charging an electric car will be between home charging and using public AC and DC stations, with differences reaching even several hundred percent when calculated per 100 km. Home charging \u2013 especially using night or dynamic tariffs \u2013 will remain clearly the cheapest form of replenishing energy because you pay only for the electricity plus distribution fees, without station operator markup, infrastructure costs or extra service fees. Average household energy rates after tariff protections are phased out and new tariffs introduced in 2026 may range around 0.80\u20131.10 PLN\/kWh during the day and 0.50\u20130.80 PLN\/kWh in cheaper night or weekend bands, though exact prices depend on supplier, region and chosen tariff (e.g. G11, G12, G12w or dynamic tariffs tied to wholesale prices). For an EV driver that means at 15\u201318 kWh\/100 km and charging mainly at night, 100 km cost can be 14\u201320 PLN, and with dynamic tariffs during RES overproduction even lower. Importantly, home charging gives greater cost predictability: “kWh from the meter = kWh in the battery”, and the only additional expense is potential investment in a wallbox or electrical installation upgrade (which amortises over many years and does not directly affect a single charging cost). On the downside, home charging is limited by connection power and installation capabilities \u2013 typically AC charging at 3.7\u201311 kW \u2013 which means longer recharging times, but for users charging mainly overnight this is not a significant drawback.<\/p>\n
Public charging stations, particularly fast DC chargers along expressways and motorways, offer convenience and time savings, but their prices in 2026 will remain markedly higher than a home socket. Station operators must cover not only energy costs but also infrastructure investments, site leasing, maintenance, IT and commercial margin, which reflects in the final price for drivers. Practically, in 2026 AC public charging at 11\u201322 kW is expected to cost around 1.60\u20132.20 PLN\/kWh, while fast DC chargers 50\u2013150 kW will offer energy in roughly 2.20\u20133.20 PLN\/kWh, and ultra-fast points above 150 kW may be even more expensive. Final rates depend on operator, location (motorway chargers are usually pricier than urban ones) and subscription or loyalty programmes \u2013 some networks offer lower prices for regular customers or fleets. Additionally, some providers apply fees for parking time after charging ends (so-called stall-blocking fees), which can raise total session cost if the driver leaves the car plugged in too long. Converted to 100 km, with typical in-route consumption of 18\u201322 kWh\/100 km (due to higher speeds), a driver paying 2.50\u20133.00 PLN\/kWh at fast DC chargers will pay 45\u201360 PLN per 100 km \u2013 i.e. a cost comparable to petrol and higher than an economical diesel. Conversely, using mainly public AC chargers in cities where consumption tends to be lower (e.g. 14\u201317 kWh\/100 km thanks to regeneration and lower speeds), at ~1.80 PLN\/kWh 100 km may cost ~25\u201335 PLN, which still offers a clear advantage over liquid fuels but not as dramatic as in the home charging scenario. Many drivers will combine both forms \u2013 cheap, predictable home charging plus pricier fast top-ups on the road \u2013 and the average EV kilometre cost will depend on the ratio: the higher the share of home (or PV) energy, the lower the running cost compared to a combustion car.<\/p>\n
Tariffs G11 and G12 \u2013 How to Choose Best?<\/h2>\n
Tariffs G11 and G12 are the basic choices for EV owners who charge at home and want to manage energy costs consciously. In short, G11 is a single-rate tariff \u2013 you pay practically the same price for 1 kWh all day, while G12 is a two-rate tariff \u2013 energy is clearly cheaper in selected hours (usually at night and partially on weekends) and more expensive in daytime peak hours. In 2026, with expected stabilisation but still relatively high energy prices, the right tariff choice can determine whether EV charging costs closer to 14 PLN or rather 25 PLN per 100 km. G11 is a “no-fuss” solution \u2013 it does not require monitoring hours, charging schedule apps or smart chargers. If you use an EV occasionally, have low mileage, and your home energy consumption is balanced throughout the day (working from home a lot, cooking, appliances used at various times), the simplicity of G11 may be more important than a few percent savings. For such a profile the real charging cost in 2026 may be around 0.80\u20131.00 PLN\/kWh, which at 17\u201320 kWh\/100 km gives the mentioned 14\u201320 PLN. If you drive 8\u201310k km annually, switching to G12 might bring only minor savings relative to the total electricity bill, especially if most household consumption still occurs in expensive daytime hours. Additionally, many distributors set a higher fixed fee in G12 and a somewhat higher daytime rate, so with little night usage the two-rate tariff may actually increase the overall bill. For apartment dwellers where charging is limited to a garage socket (without scheduling options), and household members consume a lot during daytime, G11 often remains the most sensible and predictable option.<\/p>\n
G12 shows its advantages where you can consciously shift most vehicle charging to night hours and automate the process \u2013 for example using a wallbox with scheduling or the car\u2019s timer. In 2026 the difference between day and night bands should still reach several dozen percent, and some suppliers may charge up to half the price at night compared to peak. If you charge mainly between 22:00 and 6:00 and drive 15\u201325k km\/year, the effective energy cost for the EV can drop to ~0.60\u20130.75 PLN\/kWh. Practically this translates to 10\u201315 PLN per 100 km, a level hard to achieve in G11 without PV. To make such a change worthwhile you must look beyond just the car. When choosing between G11 and G12 analyse your household consumption pattern: how much energy runs continuously (fridge, servers, aquaria), which appliances are used mostly in the evening (oven, induction hob, washing machine, dryer, dishwasher), and whether you have a heat pump or electric heating that can be rescheduled to cheaper periods. The more you can shift to nights and weekends, the more financially sensible G12 becomes. If you also plan or already have PV plus a home battery or vehicle-to-home capability, the picture improves: during the day you use PV and charge the car at night from the grid at cheap rates, maximising self-consumption and minimising bills. With annual mileage of 20\u201330k km the difference between G11 and a well-used G12 can reach several hundred or even over a thousand PLN yearly just for vehicle charging. On the other hand, if you live in a studio, travel a lot for work, rarely park overnight in the same place, or have an irregular schedule, shifting charging to specific hours is difficult and the cost gap narrows. To summarise: G11 is beneficial for low annual mileage drivers (e.g. up to 8\u201310k km), without exclusively night charging possibility, with high daytime household consumption and preference for simple solutions. Consider G12 if: you can charge mainly at night, have medium or high annual mileage (over 12\u201315k km), can shift some household appliances to night cycles, and plan integration with PV and a home battery \u2013 in this model 2026 charging costs can be clearly lower than even the best G11 scenario.<\/p>\n
Changes in the Electric Vehicle Charging Market<\/h2>\n
The EV charging market in Poland by 2026 is moving from early development to a stage of organisation and professionalisation, which directly affects infrastructure usage costs. First, operator consolidation is occurring \u2013 smaller players unable to keep competitive prices or finance network expansion are being acquired by larger entities linked to energy companies, fuel groups or international charging networks. The result is a slow standardisation of pricing and rules, but also more diverse offers: classic per-kWh rates, subscription models, kilometre packages and loyalty programmes tied to fleet cards or mobile apps coexist. Second, the share of fast DC chargers along main routes grows significantly, improving EV usability but solidifying the split between “cheap” AC charging (home, work, slow urban posts) and “expensive” current from fast hubs near motorways. For drivers this means conscious planning where and how to charge to avoid overpaying \u2013 especially as ultra-fast stations above 150 kW are priced as premium compared to typical 50\u2013100 kW chargers. At the same time billing methods are standardising: moving away from time-based or mixed fees towards clear per-kWh billing, with additional charges for blocking a bay after charging to speed turnover and reduce queues. Smart energy management systems are becoming more important \u2013 chargers are increasingly integrated with smart home<\/a> systems, storage and PV, enabling dynamic power management, charging in lowest-price windows and automatic adjustment of charging speed to grid load. Combined with new dynamic tariffs supported by EU regulation, EV drivers have more optimisation options, though this requires greater awareness and using apps aggregating price and station availability data. Another important trend is entry of new players \u2013 retail chains, developers and office managers install their own chargers, often offering lower or free charging for customers and employees, which indirectly puts price pressure on public operators. In cities a semi-public segment develops \u2013 chargers in housing estates, condominium garages or P+R car parks with access limited to certain users or prioritised for residents; prices here usually sit between home and commercial rates. Additionally, state and local governments introduce requirements for a minimum number of charging points in new and renovated buildings, which in the medium term increases availability of “near-home” sockets and reduces reliance on expensive fast stations.<\/p>\n
Regulatory and technological changes are also underway that will directly affect charging bills in 2026 and beyond. The Electromobility Act and Fit for 55 implementation force pricing transparency, access to chargers without many RFID cards and contactless payments with card or BLIK at most new stations. EU AFIR regulations require operators to publish real-time prices, allowing users to compare offers in apps and choose cheaper locations \u2013 increasing competition at least in denser urban areas. Introducing caps on maximum kWh prices on high-speed roads is debated and not settled, but the topic may limit the most extreme “fuel-like” pricing cases. Network operators are preparing for growing loads: connection capacity fees for large charging hubs appear, indirectly shifting costs to fast charger users but also encouraging local energy storage and RES usage. In a few years we may see time-of-day price differentiation at public stations \u2013 cheaper charging during high wind and solar production and more expensive in the evening, resembling G12 but in a commercial form. On the technology side, bidirectional charging (V2H, V2G) development is key, enabling the car battery to act as a buffer for the home or grid: combined with prosumer agreements EV owners may not only charge cheaper but also earn by providing energy during peak hours. This affects the profitability of buying an EV \u2013 the car becomes part of the home energy system, not just transport. Energy suppliers and station operators are already testing “flat rate” offers or monthly kilometre packages where the customer pays a fixed subscription for a certain limit of fast charges, providing cost predictability but requiring close reading of terms (speed limits, mandatory breaks between sessions, overuse fees). At the same time some promotional free chargers, particularly at shopping centres and public offices, which initially encouraged electromobility, are disappearing and being replaced by paid points with moderate rates, often lower than motorway prices but still noticeable in the driver\u2019s budget. All these processes make the 2026 charging market more predictable and mature, but they also demand a more conscious approach from users to choose operator, location and billing model if they want to keep a clear cost advantage over combustion cars.<\/p>\n
When Is an Electric Car Cheaper to Run?<\/h2>\n
Whether an EV is truly cheaper to run than a combustion car does not depend solely on energy or fuel price but on the overall usage pattern. The biggest economic advantage for an EV appears when most charging occurs at home or work at favourable kWh rates \u2013 especially with a G12 tariff with cheap night electricity or when using your own PV installation. If a driver can charge regularly off-peak, the cost per 100 km can fall to 14\u201320 PLN, and with PV and properly sized installation even to around 3\u20137 PLN \u2013 levels unreachable for combustion vehicles at current and forecast fuel prices. The higher the annual mileage, the faster the higher purchase price of an EV spreads out \u2013 at 20\u201330k km\/year the fuel cost difference between petrol\/diesel and electricity begins to bring real savings of several thousand PLN annually. EVs are particularly cost-effective for daily commuters, business use and fleets where regular mileage and predictable routes allow planning charging at the cheapest hours. Driving style matters too \u2013 calm, smooth urban driving with frequent regenerative braking favours EVs, which in such conditions can consume much less energy than at high-speed motorway driving. Practically this means drivers mostly in cities and suburban roads can expect lower average 100 km costs than those constantly travelling at high speeds on motorways. Another advantage is lower service costs \u2013 EVs have no oil changes, fuel filters, spark plugs or complex gearboxes, and brakes wear out slower thanks to regeneration. Costly repairs related to turbos, clutches or injectors are also less frequent. Over several years and tens of thousands of kilometres, service savings can partly offset the higher purchase price. For businesses there are favourable financing and leasing options and the possibility to deduct charging expenses as business costs, further improving EV attractiveness versus petrol or diesel cars.<\/p>\n
An EV is also cheaper to run where the driver can limit expensive public DC charging to necessary situations \u2013 e.g. only a few long trips per year. The optimal scenario is charging the battery fully at home (or work) at an attractive rate and only short top-ups at fast stations to keep the average 100 km cost near the lower bound. In 2026, with loyalty programmes, subscriptions and kWh packages developing, drivers who consciously choose a fast-charger operator and optimise routes can significantly lower travel costs compared to chaotic use of random charging points at standard rates. EVs become noticeably cheaper especially in cities offering additional perks \u2013 free or cheaper parking, bus-lane access, discounts in paid parking zones or exemption from future clean transport zone charges. These elements may not appear directly in the electricity bill but can translate into hundreds or even thousands PLN saved annually compared to a combustion car user who pays for parking, fines for restricted zone entry or wastes fuel in traffic jams. Profitability also increases where subsidies for EV purchase, tax incentives or grants for private charging points are available \u2013 lowering the entry threshold and shortening payback. Conversely, if a driver must charge almost exclusively at expensive public fast chargers, drives mainly at high motorway speeds, has relatively low annual mileage and lacks access to night tariffs or PV, the EV cost advantage in 2026 may shrink significantly or even disappear. The tipping point for a clear EV cost advantage is therefore a combination of factors: at least several ten thousand kilometres annually, dominant charging in cheaper locations (home, work, PV), moderate speeds, a conscious choice of G11\/G12 tariff and avoiding excessive use of the most expensive DC rates. Where this configuration is possible, the total running costs of an EV in 2026 remain clearly lower than a comparable combustion car, and the gap grows with additional kilometres driven.<\/p>\n
Summary<\/h2>\n
In summary, 2026 brings dynamic changes in the energy and fuel markets. Electric cars, thanks to cheap tariffs and the possibility of inexpensive night home charging, still offer more attractive running costs compared to combustion cars. Choosing the right electricity tariff and charging consciously allows further expense optimisation. Changes in public charger pricing require flexibility, but even after price increases EV drivers can enjoy lower costs per 100 km compared to petrol or diesel. This makes electric cars increasingly cost-effective, especially with rising fuel prices.<\/p>\n","protected":false},"excerpt":{"rendered":"
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- Cost to Drive 100 km: Combustion vs Electric<\/a><\/li>\n