EU Regulations Countdown Begins! Still Chasing Luminous Efficacy? Don’t Let “Non-Replaceable” Luminaires Block Your Path to Overseas Markets
Since the beginning of 2026, China's lighting industry has continued its strong momentum in expanding overseas. As a core high-end lighting market globally, the European Union has long remained a primary target for Chinese manufacturers. However, even today, many lighting companies still hold onto the outdated belief that meeting luminous efficacy standards alone is enough to enter the EU market.
With the revised Energy Performance of Buildings Directive (EPBD) set for full implementation in May 2026, alongside the ongoing enforcement of the Ecodesign for Sustainable Products Regulation (ESPR) introduced in 2024, the entry rules for the EU lighting market have undergone a fundamental and disruptive transformation.
A single focus on energy efficiency is no longer the key benchmark for market access. Instead, competition has shifted from “performance compliance” to a more comprehensive standard of “sustainability + intelligence.” Lifecycle sustainability assessment and intelligent adaptability are now becoming the essential entry tickets—and critical thresholds—for Chinese companies seeking to enter the EU market.
I. Dual Regulations in Parallel: A Fundamental Reshaping of EU Market Access Logic
For more than a decade, Chinese lighting companies have based their compliance strategies for the EU market primarily on the energy efficiency requirements of the ErP Ecodesign Directive, forming a deeply rooted belief that “meeting luminous efficacy standards equals market entry compliance.” However, this logic has become completely obsolete in the EU market of 2026.
Today, EU regulation of the lighting market is defined by two parallel and highly interconnected regulatory frameworks, fundamentally rewriting the logic of market access.
One is the upcoming EPBD, which directly creates rigid demand for smart lighting, shifting its role from an “optional feature” to a “mandatory standard.” The other is the ESPR, serving as a top-level regulatory framework. It replaces the previous Ecodesign Directive and expands the scope of regulation from energy-related products to nearly all physical goods. At the same time, the core evaluation criteria have evolved from single energy efficiency parameters to comprehensive lifecycle environmental impact and sustainability performance.
This is not a routine regulatory update in the EU—it represents a foundational restructuring of the entire market access system. For Chinese lighting enterprises, this signals a complete shift in the competitive landscape. In the past, competition focused on manufacturing strengths such as luminous efficacy, cost, and production capacity. In the future, success will depend on a combination of capabilities, including smart integration, full lifecycle green design, supply chain traceability, and digital compliance.
II. Countdown to May Implementation: EPBD Sets Mandatory Entry Thresholds for Smart Lighting
In May 2026, the revised Energy Performance of Buildings Directive (EPBD) will officially come into force. This represents the first—and most urgent—compliance challenge for Chinese lighting companies expanding overseas this year. Its mandatory requirements directly overturn the traditional logic that “a compliant standalone luminaire is sufficient for market entry.”
The core requirement of the new regulation is clear: all newly constructed commercial buildings in the EU must be equipped with automated lighting control systems and building automation systems. This provision fundamentally transforms smart lighting from a value-added option into a mandatory standard, while also establishing entirely new entry thresholds for lighting products:
From standalone products to system-integrated solutions: Lighting products can no longer function as isolated units. They must possess connectivity and integration capabilities, enabling seamless integration into building-wide smart management systems. This includes dynamic dimming based on occupancy and daylight, energy monitoring, and intelligent control.
Standardized technical compatibility: Products must align with key EU frameworks such as the Smart Readiness Indicator (SRI), as well as global communication protocols like Matter, ensuring interoperability and seamless connectivity.
Driver-level compliance requirements: Drivers must meet the mandatory D4i Gen 2 specifications. Beyond basic DALI dimming, they must support energy metering and diagnostics in accordance with DALI Parts 250–253 standards. In addition, drivers must be independently installed, use pluggable terminals, and must not share a thermal path with the LED module.
For many Chinese manufacturers that still focus on traditional lighting products or basic smart solutions, these requirements represent a significant challenge. Without completing the transition toward intelligent product upgrades and system integration compatibility, even products with top-tier luminous efficacy and energy efficiency will be unable to enter the core market of newly constructed commercial buildings in the EU—facing the real risk of being excluded from mainstream procurement lists.
Ⅲ. ESPR Framework Implementation: Lifecycle Sustainability Becomes the Core of Compliance
If the EPBD defines the red line for smart access, the ESPR fundamentally reshapes the underlying logic of product compliance from a top-level design perspective. It is also the area where many Chinese companies face the deepest misconceptions and the greatest lack of preparedness. The core transformation introduced by the ESPR lies in shifting the starting point of compliance control from final product testing to the design stage. Companies are now required to consider the environmental impact of a product across its entire lifecycle from the very beginning of R&D. This includes durability, repairability, recyclability, recycled material content, carbon footprint accounting, and hazardous substance management—rather than focusing solely on end-stage energy efficiency and luminous performance.
This represents the most direct expression of the new compliance logic under the ESPR framework: as LED technology has already minimized energy consumption during the operational phase, the environmental impact of manufacturing and end-of-life disposal has become the central focus of EU circular economy policies.
This is precisely why “disassemblability” has evolved from a product optimization option into a mandatory market entry requirement in the EU. At its core, it is a fundamental prerequisite for achieving lifecycle sustainability. Only products that can be disassembled and separated can support repair, component replacement, and material recycling. This, in turn, reduces electronic waste and lowers the overall environmental burden throughout the product lifecycle. This principle aligns with the ESPR framework and the EN45554 repairability assessment standard. It is not a “hidden trade barrier” imposed by the EU, but rather an inevitable requirement in the global transition toward a greener lighting industry.
Cases identified through our recent industry research and visits to export-oriented companies are enough to shatter the long-held “efficacy-first” compliance illusion—and serve as a serious warning to the industry:
A linear luminaire with a system efficacy as high as 170 lm/W was rejected outright by EU buyers because its LED modules were permanently bonded to the aluminum tray with thermally conductive double-sided adhesive, and the driver was glued inside the housing. As a result, disassembly and repair required destroying the original structure. The product was not only refused but also placed on an EU compliance blacklist, preventing similar products from the same company from entering the EU market thereafter.
Under the EU regulatory framework of 2026, such a product is treated no differently from a low-efficiency luminaire that fails to meet efficacy standards. Meeting luminous efficacy is merely a baseline requirement—while disassemblability, repairability, and other sustainability criteria have become the निर्णative “final vote” that determines whether a product can enter the market.
Based on the ESPR framework and the EN45554 repairability assessment standard, the EU market has now established four non-negotiable compliance thresholds for lighting products. Each comes with clear mandatory requirements, testing standards, and consequences for non-compliance. These also represent the key directions for product transformation among Chinese manufacturers, as outlined below:
1. Structural Compliance: Dual-Layer Architecture as a Mandatory Standard — No Exceptions
This is the core architectural requirement for achieving “disassemblability” and a clearly defined mandatory clause under the EN45554 standard—not a design option that companies can choose at will. At its core, the requirement is straightforward: all lighting products entering the EU market must be structurally divided into two independent layers—“durable components” and “consumable components.” Moreover, this separation must strictly comply with the requirements of non-destructive disassembly and independent replacement, ensuring that each layer can be accessed, removed, and replaced without damaging the overall product structure.
Specific Mandatory Requirements Include:
Durable components (primarily the housing, enclosure, and mounting rails) must have a service life of more than 20 years. Once installed, they should remain fixed and be reusable over the long term. The materials must comply with EU RoHS 3.0 hazardous substance restrictions and pass durability tests such as salt spray and aging tests.
Consumable components (primarily the gear tray, LED modules, and drivers) must be designed as independently detachable structures. They should be removable and replaceable without causing damage, using no specialized tools or only one common tool (such as a Phillips screwdriver). The disassembly process must not damage the durable components or affect the product's subsequent installation and operation.
After separation, the connection interfaces between consumable and durable components must remain intact. Once consumable parts are replaced, the overall product must continue to meet EU standards for energy efficiency and luminous performance, without issues such as brightness degradation, increased energy consumption, or safety risks.
Consequences of Non-Compliance:
If a product does not adopt a dual-layer structural design, or if disassembly requires structural damage or multiple specialized tools, it will be deemed non-compliant. Such products will fail EU customs inspections and be denied entry into the market. Products already in circulation may be subject to recall, and companies may face substantial fines—potentially up to 4% of their annual turnover, depending on enforcement rules in different EU member states.
2. Process Compliance: Full Implementation of a “Zero Adhesive” Policy — Mandatory Ban, No Exceptions
This is a critical process requirement to ensure the practical realization of “disassemblability.” The EN45554 standard clearly defines a “positive and negative list” for fastening methods, among which the “zero adhesive” rule is a core mandatory prohibition. Its purpose is to prevent irreversible bonding that would make non-destructive disassembly impossible and hinder the recycling and reuse of components.
Specific Mandatory Requirements Include:
First, prohibited bonding processes (comprehensively banned with no exemptions): in critical areas such as the thermal fixation of LED modules to aluminum trays, the attachment of gear trays to housings, and the fixing of optical components (lenses, diffusers) to enclosures, the use of any irreversible or residue-leaving adhesives is strictly forbidden. This includes thermally conductive double-sided tape, hot-melt adhesives, potting compounds, instant adhesives, and similar bonding methods. Even minimal use will be deemed non-compliant.
Second, required compliant processes: all fastening must adopt reversible solutions such as clips, spring fasteners, standard screws, or non-adhesive thermal pads (used solely for heat transfer without any bonding function). Screws must conform to EU standard specifications to ensure compatibility with common tools, while clips and spring components must possess sufficient elasticity to maintain fastening performance after repeated disassembly (at least 50 cycles).
Third, testing requirements: products must pass disassembly tests recognized by EU authorities. After disassembly, all components must show no residue or damage and must be suitable for direct reassembly or independent recycling. Products that fail these tests will be denied market entry.
Consequences of Non-Compliance:
If prohibited bonding processes are detected, the product will be deemed non-compliant regardless of whether other performance indicators meet standards. Companies will be required to recall all exported products, carry out corrective actions, and resubmit for testing. The rectification period will not count toward any transition period, and any losses resulting from missing the market window must be borne entirely by the company.
3. Interface Compliance: Standardized Interfaces Ensure Replaceability — Mandatory Adaptation, No Exceptions
The core prerequisite for repairability and replaceability lies in interface standardization. Without unified interfaces, even if a product can be disassembled, it cannot support component replacement across different brands or production batches, which contradicts the fundamental objectives of the EU's circular economy. Therefore, interface standardization has been established as a mandatory requirement. Products must strictly comply with the standards of the Zhaga Consortium, which is the preferred—and in practice, de facto mandatory—standard for compliance in the EU market.
Specific Mandatory Requirements Include:
First, light source module interfaces must strictly comply with Zhaga Book 14 specifications, with mandatory constraints on PCB dimensions, pin definitions, and mounting hole positions. Standard connectors must be used, and non-standard methods such as manual soldering or customized interfaces are strictly prohibited, ensuring interchangeability of light source modules across different brands and production batches.
Second, expansion interfaces must reserve standardized sensor ports in accordance with Zhaga Book 20. These interfaces are intended for future integration of devices such as occupancy sensors and daylight sensors, supporting upgrades to building automation systems. The interface location must allow sufficient space for installation and maintenance, and must not be obstructed or concealed.
Third, driver interfaces must adopt pluggable standardized connectors. Connections between the driver, light source modules, and building intelligent systems must comply with DALI Parts 250–253 standards. After disassembly, drivers of the same specification should be directly replaceable without requiring rewiring or parameter reconfiguration.
Consequences of Non-Compliance:
Products that fail to comply with Zhaga interface standards or adopt non-standardized designs will be deemed “non-replaceable” and will be prohibited from entering the EU market. If products already on the market are found unable to support component replacement due to interface issues, they will be subject to recall and rectification. In addition, the company may be placed on an EU compliance watchlist, and future products will face stricter regulatory scrutiny.
4. Digital Compliance: Digital Product Passport (DPP) Becomes a Mandatory Requirement — Essential, No Omissions
As a core implementation tool of the ESPR framework, the Digital Product Passport (DPP) serves as the “digital identity” for products entering the EU market. It is not an optional value-added feature, but a mandatory requirement for all lighting products. The DPP is also a critical foundation for enabling full lifecycle traceability and recyclability. Closely linked with the “disassemblability” requirement, the DPP ensures that even if a product can be physically disassembled, without it, there is no way to verify compliance in terms of repairability and recyclability.
Specific Mandatory Requirements Include:
First, QR code requirements: the product body must be laser-engraved with a QR code in GS1 Digital Link format. The marking must be clearly visible, resistant to wear, and capable of passing a 10-year durability test that simulates daily use, cleaning, and disassembly scenarios, ensuring the code remains scannable throughout its lifespan. The use of stickers or printed labels that may peel off or become blurred is strictly prohibited.
Second, QR code-linked information (mandatory and complete, with no omissions): scanning the code must provide direct access to the product's full lifecycle data, including detailed disassembly instructions (with diagrams), waste sorting guidance for each component (clearly identifying recyclable parts and those requiring special handling), the EN45554 repairability score (which must meet the EU minimum threshold of 60 points), direct spare parts purchasing links (pointing to accessible EU-based supply channels with guaranteed availability for at least 7 years), carbon footprint data, and hazardous substance test reports.
Third, data integration requirements: the driver must have embedded standard GTIN (Global Trade Item Number) along with key data such as power and energy efficiency. This enables EU regulators and buyers to quickly verify product information and ensures full lifecycle traceability.
Fourth, update requirements: DPP information must be updated in real time. If there are any changes to product design, manufacturing processes, or spare parts supply channels, the QR code-linked information must be updated within seven working days to ensure accuracy and timeliness.
Consequences of Non-Compliance:
Products without a DPP, with non-compliant QR codes, incomplete information, or failure to maintain updates will be directly blocked by EU customs and denied market entry. Products already on the market will be subject to recall, and companies may face fines while bearing the full cost of data updates and product rectification. In serious cases, companies may be restricted from entering the EU market for a period of one to three years.
It is important to remain vigilant that the ESPR is a framework regulation. The European Commission is currently formulating its 2025–2030 working plan to determine priority product categories for regulation. Once lighting products are included in this priority list, companies will have only an 18-month transition period after the legislation is adopted to complete adjustments to their products and supply chains.
For Chinese companies, waiting until the regulation is formally implemented before initiating changes will inevitably result in missing the market window. Instead, the sustainability principles of the ESPR must be fully integrated into product development and supply chain management systems from the outset.
IV. The Unshakable Foundation for Market Entry: Existing ErP Requirements Remain the Baseline
While responding to new regulations, it is important to remind industry players that the current Phase 3 requirements of the Ecodesign Directive (ErP) for LED lighting products remain the fundamental threshold for entering the EU market and must not be overlooked.
Implemented since 2023, the ErP Phase 3 standard clearly defines core energy efficiency baselines: directional LEDs must achieve a minimum efficacy of ≥120 lm/W, non-directional LEDs ≥140 lm/W, and LED luminaires ≥105 lm/W. It also sets explicit limits on power factor and standby power consumption. In terms of durability, products must maintain a lumen maintenance rate (L70) of ≥30,000 hours, and for residential applications, a switching cycle of ≥50,000 times is required. Regarding repairability, the standard mandates that LED modules must be replaceable and control gear must be compatible. Manufacturers are also required to guarantee the availability of spare parts for at least seven years. In addition, products must be registered in the European Product Registry for Energy Labelling (EPREL) via QR code linkage to ensure compliance and public disclosure of information.
Companies should pay particular attention to common compliance pitfalls: EPREL registration applies to the “light source,” not the complete luminaire including the housing. Independently replaceable LED modules must be registered and tested separately in the EPREL database and cannot be declared together with the full luminaire in a single submission. Failure to comply will result in the invalidation of the entire product series' compliance status. At the same time, companies should closely monitor updates to the upcoming ErP Phase 4 standards from 2026 onward and proactively prepare for further energy efficiency upgrades.
V. The Path to Breakthrough: New Compliance Strategies for Chinese Lighting Companies Going Global
In the face of a fundamentally reshaped EU market entry framework, Chinese lighting companies can no longer rely on the outdated approach of “passive compliance and last-minute adjustments.” A comprehensive transformation—from mindset to execution—is essential. Companies must shift from simply exporting products to exporting integrated systems in order to secure a solid position in the next round of global competition. In this context, four key strategic guidelines are proposed:
First, fully upgrade compliance awareness and abandon the outdated notion that “meeting luminous efficacy equals compliance.” Decision-makers must recognize the fundamental shift in EU regulations and adopt “intelligence + sustainability” as the core direction for product development and market strategy. Companies should establish a comprehensive compliance system covering regulations, R&D, supply chain, and market operations, transitioning from reactive compliance to proactive alignment with future EU trends.
Second, reconstruct product systems from the design stage and implement circular economy principles. In response to new EU regulations, priority should be given to restructuring product architecture to meet compliance requirements—fully adopting dual-layer designs, zero-glue processes, and standardized interfaces. Repairability, disassemblability, and recyclability must become core design metrics rather than afterthoughts. At the same time, companies should advance smart technology development, ensuring compatibility with universal communication protocols and building automation systems, shifting from standalone product manufacturing to intelligent lighting solution provision.
Third, upgrade the entire supply chain and establish sustainable traceability capabilities. The core requirement of ESPR and DPP lies in full lifecycle transparency and traceability across the value chain. Companies must proactively map their supply chains and build data management systems covering material sourcing, carbon footprint accounting, and recycled content ratios. Special focus should be placed on managing recycled content and carbon emission factors of key materials such as aluminum, while collaborating with upstream suppliers to build a sustainable supply chain capable of meeting future compliance audits.
Fourth, proactively develop digital compliance capabilities to seize the market window. In response to DPP (Digital Product Passport) requirements, companies should establish corresponding digital management systems in advance, standardize product disassembly documentation, spare parts systems, and recycling information, and implement processes such as QR code laser marking and product data integration. At the same time, EPREL registration processes must be properly managed to avoid compliance failures caused by technical oversights. Even before specific ESPR regulations for lighting products are finalized, digital compliance requirements should already be integrated into existing product systems to ensure early readiness in both technology and processes.
The shift in EU market regulations essentially reflects the inevitable global transition of the lighting industry toward sustainability, intelligence, and circularity—it is by no means merely a trade barrier. China's lighting industry possesses the world's most comprehensive supply chain, the strongest manufacturing capabilities, and rapid technological iteration, which together form the core confidence for expanding into overseas markets.
As long as industry players can break away from entrenched mindsets, proactively embrace regulatory changes, and deeply integrate green design with intelligent technologies, they can successfully transform from “product manufacturers” into “full lifecycle lighting solution providers.” In doing so, they will be well-positioned to achieve a leap from “manufacturing exports” to “brand globalization,” securing a more central role in the global high-end lighting market amid the rising green wave.
