Views: 0 Author: Site Editor Publish Time: 2026-05-08 Origin: Site

The European Green Deal, as the core strategy for achieving carbon neutrality by 2050, is systematically reshaping the standards for infrastructure construction in Europe. Structured cabling, as the "neural network" of digital infrastructure, has seen its full life cycle carbon emissions, material recycling rate and energy efficiency performance become core compliance indicators. The market size of structured cabling in Europe reached 13.96 billion US dollars in 2025 and is expected to increase to 24.55 billion US dollars in 2033, with a compound annual growth rate of 7.31%. Among them, the proportion driven by green compliance exceeds 40%. This article analyzes how the European wiring industry is moving towards a new low-carbon circular model from four dimensions: policy-driven, technological evolution, material innovation, and implementation paths.
The LCA carbon accounting for the entire cable process has become routine, and high-carbon products will be restricted from entering the market.
The amendment to the EU's Eco-Design Directive (ErP) clearly stipulates that starting from 2026, all building cables must disclose their full life cycle carbon footprint (LCA) from raw material extraction, production and manufacturing, transportation and installation to disposal and recycling. The goal is to reduce the average carbon footprint of cabling products by 45% by 2030, among which the cabling of data centers needs to meet the energy efficiency requirement of PUE≤1.2.
The proportion of recycled copper and recycled sheath materials has been increasing year by year, and the recycling system for used cables has been comprehensively improved. Limiting halogens, PVC and harmful heavy metals, LSZH low smoke zero halogen has become the standard.
The Circular Economy Action Plan mandates:
Starting from 2027, the recycled content of copper conductors shall be no less than 60%, and the recycled ratio of sheath materials shall be no less than 30%.
The use of heavy metals such as lead, mercury and cadmium, as well as halogen flame retardants, is prohibited. LSZH (Low Smoke Zero Halogen) materials should be given priority.
Establish a traceability system for cable recycling, and the recycling rate of discarded cables should reach 95% by 2030.
The wiring system is linked with building automation to facilitate the renovation and upgrading of nearly zero energy consumption buildings.
The Building Energy Efficiency Directive (EPBD) requires that energy-saving renovations of 620 million square meters of existing buildings be completed by 2030. Structured cabling must be deeply integrated with the building automation system (BMS) to support intelligent lighting and HVAC energy efficiency optimization, reducing overall building energy consumption by more than 20%. Meanwhile, the Digital Network Act sets a timetable for shutting down traditional copper cable networks and fully deploying optical fibers by 2030-2035.
- Deep penetration of optical fibers : The popularization of 400G/800G port drivers OM5 multimode optical fibers and single-mode optical fibers (G.657.A1) in data centers will increase the proportion of optical fiber cabling from 40% in 2024 to 65% by 2030.
- Low-carbon Upgrade of Copper Cables : Cat6A/Cat7A uses recycled copper conductors and LSZH sheaths, reducing the carbon footprint by 40% to 55%, meeting the requirements of short-distance high-speed transmission.
- Hybrid Cabling Architecture : A combined solution of optical fibers in the backbone layer and low-carbon copper cables in the access layer, balancing performance, cost and carbon emissions.

Large-scale application of recycled raw materials, halogen-free flame retardancy, and low-toxicity and low-smoke design. Bid farewell to traditional highly polluting PVC materials and meet the dual standards of fire protection and environmental protection in European buildings.
- Large-scale application of recycled materials : Products such as Prysmian GreenConnect use 100% recycled copper, recycled aluminum foil shielding and recycled polymer sheaths, reducing the carbon footprint by 45%-55%.
- Halogen-free flame retardant popularization : LSZH materials have become the target equipment for new projects, replacing traditional PVC/CMR, reducing the emission of toxic smoke in case of fire, and meeting the EU building safety standards;
- Modular and easy-to-disassemble design : Tool-free connection and standardized interface design facilitate component replacement and material separation, enhancing recycling efficiency.
Trend 3: Smart cabling and energy efficiency optimization
POE intelligent power supply, link energy consumption monitoring, AI intelligent operation and maintenance; Through refined management, the overall energy consumption of the computer room and buildings has been significantly reduced.
- PoE+ Intelligent Management : IEEE 802.3bt standard (90W PoE) supports the integration of power supply and data transmission for Internet of Things devices, reducing the energy consumption of independent power supplies;
- Real-time energy consumption monitoring : The intelligent patch panel integrates sensors to monitor link energy consumption, temperature and flow, dynamically optimize routing, and reduce data center cooling energy consumption by 15%-20%.
- AI-driven operation and Maintenance : Machine learning predicts link failures, reducing ineffective inspections and repetitive wiring, and lowering maintenance carbon emissions.

Green certification, carbon footprint reports, and low-carbon transformation of supply chains; From production, transportation to recycling, achieve full-chain green control.
- Digital Traceability of Carbon Footprint : Utilizing blockchain technology to record the sources of raw materials, production processes, and transportation routes, it enables LCA data to be traceable, verifiable, and verifiable.
- Green Certification System Integration : Simultaneously meet multiple standards such as CE, RoHS, REACH, ISO 14064 (carbon accounting), and EUCE (European Cable Environmental Protection Certification);
- Low-carbonization of supply chain : Prioritize manufacturers powered by renewable energy, and reduce carbon emissions by 50% in Scope 1&2 of the industry by 2030.
1. Cost pressure : Low-carbon materials and intelligent technologies increase initial investment by 15% to 25%, leaving a significant gap in compliance funds for small and medium-sized enterprises.
2. Fragmentation of standards : There are differences in building codes and environmental certification details among EU countries, resulting in high compliance costs for cross-border projects;
3. Incomplete recycling system : The recycling channels for waste cables are scattered, and the quality stability of recycled materials is insufficient, which restricts large-scale application.
- Phased Compliance Roadmap : Prioritize the use of LSZH materials and recycled copper cables from 2025 to 2027; Deploy intelligent cabling systems from 2028 to 2030. The circular economy model will be fully realized after 2031.
- Industrial Chain Collaborative Innovation : Manufacturers, contractors, and operators jointly develop low-carbon solutions, share recycling facilities, and reduce compliance costs;
- Policy Incentive Utilization : Apply for the EU's "Green Infrastructure Fund" and energy-saving subsidies from various countries, covering 30% to 50% of green upgrade investments.
- Implementation Content : 100% recycled copperCat6A cabling +OM5 optical fiber backbone, equipped with an intelligent wiring management system;
- Compliance Achievements : Carbon footprint reduced by 52%, meeting the PUE≤1.2 requirement, and certified as an EU green data center.

- Implementation Content : Full LSZH cabling +PoE intelligent lighting control system, linked with BMS to optimize energy consumption;
- Compliance Achievements : Building energy consumption has been reduced by 23%, and it has obtained the EPBD Near-Zero Energy Building (NZEB) certification.
- Fully popularize LSZH low-carbon cabling, with the penetration rate of recycled copper cables reaching 50%;
Establish a carbon footprint accounting system and complete the baseline assessment of existing projects.
The penetration rate of intelligent cabling systems has reached 60%, and the proportion of optical fibers in data centers exceeds 50%.
The recycling rate of waste cables reaches 85%, and the quality of recycled materials meets the original standards.
The carbon footprint throughout the entire life cycle has been reduced by 55%, and the industry has achieved carbon neutrality.
Optical fibers are comprehensively replacing traditional copper cables to build a zero-waste cabling ecosystem.
The EU Green Deal is driving the European structured cabling industry to transform from a "performance-first" approach to a dual-core model of "low-carbon circular + high performance". Enterprises need to make early plans for low-carbon materials, intelligent technologies and compliance management systems, and transform green challenges into differentiated competitive advantages. In the future, cabling solutions that meet the EU's green standards will become the "green pass" to enter the European market, leading the global trend of low-carbon development in infrastructure.
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