Power Purchase Agreement
Not just a financing tool — Svenska kraftnät is testing PPAs as verification evidence in the proposed anvisningssystem connection-allocation mechanism, a structural novelty where a PPA would prove a large new customer (like a data center) has arranged matching new fossil-free production, not that it secured favorable pricing.
This idea has now been elevated from a Svk-only investigation to a formal joint Ei/Svk government assignment (June 2026) with its own 2027 deadline, specifically tasked with designing how PPAs and similar price-hedging instruments could let large electricity users connect faster if they bring matching new production — a genuinely new use for the instrument beyond revenue certainty or green claims.
A Power Purchase Agreement (PPA) is a bilateral long-term electricity supply contract between a renewable energy producer and a buyer (offtaker), establishing the price, quantity, duration, and risk allocation for electricity sales outside the standard short-term spot market.
EU legal definition
Regulation (EU) 2024/1747, Art. 2(77) defines a PPA as:
“A contract under which a natural or legal person agrees to purchase electricity from an electricity producer on a market basis.”
This is the first EU-level legal definition of PPA, introduced as part of the Electricity Market Design Reform 2024. It is deliberately broad — covering corporate PPAs, merchant PPAs, physical and virtual structures.
Why PPAs exist
PPAs serve different interests for each party:
For generators: renewable projects have high capital costs (CAPEX) and negligible operating costs (OPEX). Revenue is entirely dependent on electricity prices — which are volatile. A long-term PPA provides revenue certainty that:
- Enables debt financing (banks typically require a PPA from a creditworthy offtaker as a project financing condition)
- Allows economic operation after subsidy schemes expire (post-subsidy merchant risk)
- Transfers some price risk to the offtaker
For buyers: large consumers (industries, data centers) use PPAs to:
- Hedge against electricity price volatility — 12–42% bill reduction possible with flexible retail contracts (AEAP, COM/2025/79)
- Demonstrate renewable electricity procurement for sustainability commitments
- Secure competitive electricity prices for industrial processes
PPA typology
The typology below follows the standard buyer-type / delivery-mechanism split used in industry practice. (Source - PPAs Explained (Next Kraftwerke))
By buyer
| Type | Description | Notes |
|---|---|---|
| Corporate PPA | Generator → large consumer directly | Price certainty for both parties; Guarantees of Origin typically transferred |
| Merchant PPA | Generator → electricity trader | Trader may resell on exchange or to end consumers |
By delivery mechanism
| Type | Physical delivery | Grid involvement | Key characteristics |
|---|---|---|---|
| On-site PPA | Direct, behind meter | None | Producer on customer premises; can reduce grid costs; always Corporate; plant sized to customer profile |
| Off-site PPA | Via public grid | Balance group settlement | Fixed price; plant can be geographically remote; Guarantees of Origin transferred |
| Sleeved PPA | Off-site with intermediary | Yes | Intermediary (e.g., Next Kraftwerke) handles balancing, portfolio, and risk management; more accessible for smaller parties |
| Virtual/synthetic PPA | Financial only — no physical delivery | Electricity sold separately at market | Uses a CfD structure: both parties settle at market price and a Contract for Difference adjusts to the agreed strike price |
Virtual PPA mechanism in detail
The synthetic PPA decouples electricity flow from the financial agreement:
- Generator’s energy service provider sells electricity at market (spot) price (e.g., EPEX)
- Consumer’s supplier buys a matching profile at market price
- A Contract for Difference between the PPA parties pays/receives the difference between spot and the agreed strike price
Result: both parties effectively achieve the agreed PPA strike price regardless of spot price movements. Simpler administratively than physical off-site PPAs — suitable when neither party wants to manage balance group connections.
Note: this CfD structure in corporate PPAs is distinct from the two-way CfDs under Art. 19d of Regulation 2024/1747, which are public-support instruments for new renewable investment.
Advantages and disadvantages
| Aspect | Advantages | Disadvantages |
|---|---|---|
| Risk management | Removes energy price volatility for both parties | Long-term lock-in (10–15 years) — adverse if prices move significantly |
| Financing | Enables project debt financing; lenders accept creditworthy PPA as security | Complex contracts — primarily accessible to large companies |
| Sustainability | Physical PPAs with Guarantees of Origin enable verified green procurement | Volume/profile risk: variable renewable output may not match contracted profile |
| Flexibility | Highly customizable contract structures | Requires skilled legal and commercial counterparties |
EU policy framework (Electricity Market Design Reform 2024)
Art. 19a — Obligation to promote PPAs
Member states must:
- Remove unjustified barriers to PPA uptake
- Ensure instruments are available to reduce buyer-default financial risk (e.g., state-backed guarantee schemes at market prices) and are accessible to customers facing PPA entry barriers
- Allow support schemes for renewables to reserve a share of output for PPAs (i.e., allowing subsidised projects to also enter PPAs)
Art. 19b — PPA templates
ACER assessed (published 15 October 2024) whether voluntary PPA templates would facilitate market development, drawing on an expert group and a public consultation. Conclusion: ACER does not need to develop new voluntary PPA contract templates. A “significant majority” of stakeholders judged additional templates unnecessary — existing industry/national templates already suffice, and standardization would sacrifice the flexibility bespoke PPAs need. ACER instead recommended: (1) regular updates to existing templates with a public registry of them, (2) national-level policy action on structural barriers (collaterals, demand pooling, buyer-default guarantee schemes), and (3) joint ACER–Commission work on structural barriers with a knowledge-sharing webinar. Separately, ACER noted stakeholder suggestions for workshops and voluntary “plug-in” legal clauses (e.g. for REMIT/EMIR reporting) and will evaluate their feasibility, rather than issuing full templates. ACER says it will keep monitoring market needs, including via its separate annual PPA assessment (below). (Source - ACER Assessment PPA Contract Templates (2024))
ACER annual assessment
ACER must publish an annual PPA market assessment covering: uptake, barriers, prices, and cross-border dimensions.
Art. 18a (Directive 2024/1711) — Supplier hedging
Regulatory authorities must ensure suppliers have appropriate hedging strategies when offering fixed-price contracts. These strategies may include PPAs. Where PPA markets are sufficiently developed, member states may require suppliers to cover a share of their fixed-price exposure through renewable PPAs.
PPA market context
Corporate PPAs are growing internationally, particularly for technology companies seeking to power data centers with renewable energy. Well-known examples include Google/Apple renewable contracts and Google-Engie offshore wind PPA in Belgium. Growth is driven by:
- Corporate net-zero commitments requiring verified renewable electricity
- End of subsidy regimes for early renewable projects (post-2010 wind/solar now post-subsidy)
- Art. 19a EU mandate requiring member states to actively remove barriers
Key barriers remain:
- Creditworthiness requirements: sellers prefer large, creditworthy buyers — SMEs and municipalities face barriers (addressed by Art. 19a guarantee scheme requirement)
- Long-duration risk: 10–15 year PPAs require buyers with stable long-term operations
- Legal/commercial complexity: negotiation costs make PPAs primarily accessible to larger organisations
Swedish and Nordic context
PPAs are commercially established in the Nordics, particularly for offshore wind projects. The Nordic electricity market’s existing price structures (SE1–SE4 bidding zones, Nord Pool spot) provide the market price reference against which PPA strike prices are set. Nordic PPAs are predominantly physical off-site or sleeved structures due to the developed balance market infrastructure.
Sweden has not yet established the Art. 19a guarantee scheme mechanism. Unlike the flexible-connection and energy-sharing provisions that come from the Directive (2024/1711) and require national transposition, Art. 19a is part of the Regulation (2024/1747), which has been directly applicable — with no transposition step — since it entered into force on 16 July 2024; implementation is therefore a matter of administrative/market development rather than a pending transposition deadline.
Relationship to two-way CfDs
The EU’s mandatory two-way CfDs for new public support (Art. 19d, Regulation 2024/1747) share the CfD financial structure with virtual/synthetic PPAs but are distinct instruments:
- Two-way CfDs are public support instruments — the counterpart is typically a government entity
- Private PPAs are market-based bilateral contracts — no public support involved
- A project can receive public support via a two-way CfD and separately enter a PPA for a portion of its output
A real clearing price, and a real pause, from the same corner of the market. Danish offshore wind cleared an August 2026 two-way CfD auction (Nordsøen Midt and Hesselø, both won by Vattenfall) at 504 and 542 DKK/MWh (≈67.4 and 72.5 €/MWh) for projects entering service 2032 — well above both published industry cost estimates (~36–45 €/MWh offshore, per Green Power Sweden) and the capture prices a 2026 Energiforsk/Profu counterfactual study estimated for comparable Swedish SE4 offshore wind (33–49 €/MWh; see Merit-Order Price Suppression from Weather-Dependent Generation). The gap illustrates that a technology’s capture price or LCOE doesn’t fully determine what it actually takes to secure investment. Vattenfall itself paused the separate, unrelated Swedish Kriegers Flak project in September 2024 despite holding all main construction and operating permits, citing grid-connection cost — stated by the company as 25–30% of total project cost — as the decisive factor. (Source - Energiforsk Elprispåverkan Vindkraft Skåne SE4 (2026))
As connection condition in anvisningssystem
Svenska kraftnät‘s April 2026 government assignment report (Dnr 2025/5008) proposes that PPAs — or binding agreements with equivalent content — may serve as verification instruments within the proposed Anvisningssystem connection allocation mechanism. (Source - Svk Anslutningsprocessen Rapport (2026))
The context: Svk is investigating whether new large-scale electricity users (particularly data centers and similar fast-establishing, price-insensitive industries) should be required to arrange supply of new fossil-free production as a condition of receiving transmission grid connection. The concern is that these customer categories can establish in months while fossil-free generation typically takes years to permit and build — creating a structural energy deficit risk.
If such requirements are introduced, a PPA (or equivalent agreement) would provide the binding evidence that the connection condition is met. The relevant PPA content for this purpose would need to demonstrate:
- Additionality: the production is genuinely new, not already committed regardless of the PPA
- Geographic proximity: production is located close enough to the consumption connection point to reduce transmission expansion needs
- Temporal matching: production profile aligns with the consumption profile, particularly during high-load periods
Svk notes that the requirement to demonstrate such commitments would not in itself create a significant additional burden — parties would need these commercial agreements in any case to operate their facilities. However, business confidentiality aspects of how commitments are documented and verified are unresolved.
This is a structural novelty: PPAs used not primarily for revenue stability or renewable certification (their conventional purposes) but as a grid access condition embedded in the connection allocation process. The legal and economic feasibility of this requirement is still under analysis.
Elevated to a formal joint assignment (June 2026). The government has now tasked Ei and Svk jointly with proposing concrete measures — including any necessary legislative changes — on exactly this question: how price-hedging instruments, long-term elköpsavtal (PPAs) among them, can be designed to enable faster connection of large electricity users who bring matching new fossil-free production. Report due to Klimat- och näringslivsdepartementet by 3 June 2027. This moves the PPA-as-connection-condition idea from “under investigation by Svk” to “subject to a dedicated cross-agency mandate with its own deadline.” (Source - Regeringsuppdrag Prissäkring Elmarknaden (2026))
BESS-backed profile risk management — next-gen PPAs
Traditional PPAs fall into two problematic categories: baseload PPAs (seller guarantees a flat profile, bears ramp and curtailment cost) and pay-as-produced PPAs (buyer takes all profile risk — intermittent delivery, no value when prices are negative). Both limit scalability.
Flower (energy tech company) has proposed a third structure: the aggregator-as-offtaker uses a large BESS portfolio and AI optimization to manage the profile risk itself, transforming variable renewable output into a stable, predictable supply product. In April 2025, Flower signed a physical pay-as-produced PPA with Locus Energy (SEB Nordic Energy portfolio company) for 180 GWh/year from 11 onshore wind farms across SE2/SE3/SE4, then uses its BESS to smooth the output. Framed by Flower as a precursor to “next-gen PPAs” where the offtaker bears profile risk — making PPAs more scalable and affordable for wind and solar producers than baseload or pay-as-produced structures. (Source - Flower Website (2024-2026))
This structure is commercially novel in Sweden and, if it scales, could provide a new financing pathway for wind development that bypasses the limitations of both baseload and pay-as-produced PPAs. Verification of the claim that BESS can genuinely de-risk renewable intermittency at portfolio scale (rather than just shifting it in time) is open.
Related pages
- Electricity Market Design Reform 2024 — EU policy framework
- Flexibility — PPAs as revenue stability for flexibility-providing assets
- Balancing Markets — market price references for PPA strike prices
- Clean Energy Package — predecessor framework; CEP established general market principles PPAs operate within
- Anvisningssystem — the proposed Svk connection allocation mechanism where PPAs may serve as verification instruments
- Svenska kraftnät — proposing actor; government assignment context
- Ei — co-recipient of the June 2026 prissäkring assignment
- Flower — first documented Swedish actor using BESS-backed profile risk management in a wind PPA
Sources
- PPAs Explained (Next Kraftwerke)
- Electricity Market Design Reform Regulation (EU 2024-1747)
- Electricity Market Design Reform Directive (EU 2024-1711)
- EC Affordable Energy Action Plan (COM-2025-79)
- Svk Anslutningsprocessen Rapport (2026)
- Regeringsuppdrag Prissäkring Elmarknaden (2026)
- ACER Assessment PPA Contract Templates (2024)
- Energiforsk Elprispåverkan Vindkraft Skåne SE4 (2026)
- Flower Website (2024-2026)
Linked from 19
- Anvisningssystem
- Ei
- Electricity Market Design Reform 2024
- Flower
- Price Suppression from Wind/Solar
- Source - ACER Assessment PPA Contract Templates (2024)
- Source - DN Googles Datacenter Torsboda Timrå (2026)
- Source - EC Affordable Energy Action Plan (COM-2025-79)
- Source - Electricity Market Design Reform Directive (EU 2024/1711)
- Source - Electricity Market Design Reform Regulation (EU 2024/1747)
- Source - Energiforsk Elprispåverkan Vindkraft Skåne SE4 (2026)
- Source - Flower Website (2024-2026)
- Source - PPAs Explained (Next Kraftwerke)
- Source - Regeringsuppdrag Prissäkring Elmarknaden (2026)
- Source - Svk Anslutningsprocessen Rapport (2026)
- Source - Svk Anslutningsprocessen Webb (2025)
- Source - Svk Mogna Initiativ Anslutning (2026)
- Source - Svk Planering för ökad elanvändning (2025)
- Svk Grid Planning