I. CE Marking: The Gateway to the EU Market
Any photovoltaic (PV) product sold within the European Union (EU) and the European Economic Area (EEA) must bear the CE mark before being placed on the market. The CE mark is not a single certificate but a declaration of conformity with multiple EU directives;
PV components primarily fall under the scope of three directives: the Low Voltage Directive (LVD 2014/35/EU), applicable to electrical equipment with voltage ratings between 50–1000 V AC and 75–1500 V DC (with PV modules subject to harmonized standards EN IEC 61730-1/-2, focusing on insulation withstand voltage, wet leakage current, and protection against electric shock); the Electromagnetic Compatibility Directive (EMC 2014/30/EU), requiring products to pass radiated emission and immunity tests in accordance with standards such as EN 61000-6-1/-3; and the RoHS Directive (2011/65/EU), which restricts the content of ten hazardous substances—including lead, cadmium, and mercury—to no more than 0.1%.
While professional PV modules permanently installed at specific sites for continuous power generation may qualify for exemptions under certain directives, products such as portable charging panels and consumer PV devices must still ensure full compliance.
II. Product-Specific Certification Requirements
Standards vary by product category: PV modules must pass EN IEC 61215 (performance and type approval, covering tests such as thermal cycling, damp heat, UV aging, mechanical load, and hail impact) and EN IEC 61730 (safety). PV inverters and energy storage converters must comply with the EN 62109-1/-2 safety standards; grid-tied models must also meet EN 50549 requirements for voltage/frequency protection and anti-islanding detection, while energy storage inverters are subject to EN 62477-1. Micro-inverters with wireless communication capabilities must also comply with the Radio Equipment Directive (RED 2014/53/EU).
In addition to CE marking, energy storage batteries must comply with the EU Battery Regulation (Regulation (EU) 2023/1542), which came into effect in 2023 and covers full lifecycle requirements such as carbon footprint, recycling, and traceability.
PV cables must meet EN 50618 standards, while Building-Integrated Photovoltaics (BIPV) must comply with the Construction Products Regulation (CPR) and fire safety rating requirements under EN 13501-1.
III.
EU Authorized Representative and Technical Documentation
Non-EU manufacturers placing products on the EU market must appoint an EU Authorized Representative (EU REP) to handle compliance matters. Manufacturers are required to compile technical documentation—including risk assessments and technical specifications—and draft and sign an EU Declaration of Conformity (DoC); these documents must be retained for at least 10 years for inspection purposes.
Product nameplates must accurately display model numbers, power ratings, and certification information; false labeling is strictly prohibited.
EU market surveillance authorities conduct random inspections, and non-compliant products risk being subject to recalls and fines.
IV.
2026 New Regulations: Ecodesign and Carbon Footprint Declaration
The EU ecodesign framework has shifted from an energy-efficiency focus to the Ecodesign for Sustainable Products Regulation (ESPR), which now encompasses PV modules and inverters.
According to the European Commission’s roadmap, starting July 1, 2026, polysilicon, monocrystalline silicon, and cadmium telluride (CdTe) photovoltaic modules must be accompanied by carbon footprint declarations and relevant certificates. Information such as module energy efficiency ratings, bifacial/monofacial designations, and surface area must be entered into the energy efficiency labeling system;
systems incorporating inverters must also complete energy efficiency registration in the EPREL database.
During goods inspection, purchasers should require suppliers to provide carbon footprint declarations and the corresponding test reports.
V. Voluntary Certification and Market Practices
In addition to mandatory CE marking, the European market widely recognizes third-party voluntary certifications. Obtaining certificates from bodies such as TÜV Rheinland, TÜV SÜD, TÜV Nord, or VDE—confirming compliance with IEC 61215/61730 standards—is considered a “passport” for entering the European market and serves as a crucial basis for due diligence by EPC contractors and financing banks.
Once a PV product obtains a CB certificate, it can be converted into national certifications through gap testing, significantly reducing the cost of redundant testing.
Exporting enterprises are advised to design products according to EN standards from the R&D stage and engage Notified Bodies (NBs) qualified for PV products to conduct testing;
this approach shortens certification timelines and lowers the costs associated with corrective actions.
Conclusion
The certification system for exporting PV components to Europe can be summarized as “mandatory CE market access + product-specific standards + obligations for Authorized Representatives + increasingly stringent new regulations.”
Integrating certification planning into the product R&D and quotation stages, while staying abreast of updates to EU regulations, is essential for securing a stable foothold in the European market.
