Air Filter Kit CE Certification - Pricelist

I offer an Air Filter Kit built for demanding industrial use, engineered for quick installation and long service life. My kit delivers clean air, protecting motors, compressors, and process lines while cutting downtime and maintenance costs. Each component is tested for durability and fits a wide range of housings, with easy change-outs and minimal tool requirements. CE Certification is in place, so you can trust it complies with European safety standards and reliable performance from day one. If you need a Pricelist, I can send you the latest options, volume discounts, and lead times tailored to your order size. We also provide technical specs, compatibility notes, and after-sales support to keep your lines running smoothly. I’m ready to tailor the kit to your equipment and environment. Tell me your throughput, duct sizes, and preferred filtration level, and I’ll respond with a concrete proposal.

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Air Filter Kit Supplier Factory-Direct Excellence

Factory-direct excellence in air filter kits means sourcing from an experienced engineering manufacturer that combines production scale, rigorous quality control and flexible customization to meet global procurement requirements. Our vertically integrated workshop produces pleated, HEPA, cabin and industrial filter kits using certified materials and automated assembly lines; strict testing (efficiency, pressure drop, dust-holding) and compliance with international standards ensure consistent performance and traceable batches for demanding applications. Working directly with the factory cuts intermediaries, delivering competitive pricing, predictable lead times and scalable MOQ options for OEM and aftermarket programs. Buyers benefit from tailored designs, fast prototyping, consolidated shipping solutions and responsive after-sales support, making it simple to qualify products, streamline supply chains and secure reliable filtration components for projects worldwide.

{ Air Filter Kit Supplier Factory-Direct Excellence}
Model Code Filter Type Filtration Media Efficiency (MERV / Standard) Particle Size Captured Dimensions (L×W×D mm) Airflow Capacity (m³/h) Initial Pressure Drop (Pa) Recommended Replacement Typical Applications Certifications Weight (g) Manufacturing Country Shelf Life (years) Max Operating Temp (°C)
AFK-1001 Panel Pleated Polyester pleated media MERV 8 · ISO ePM10 50% ≥2.5 µm (typical) 592×592×46 2,500 (tested at 2.0 m/s) 45 Pa 6 months (commercial HVAC) Commercial HVAC, air handling units ISO 9001 · ISO 16890 420 China 3 80
AFK-1002 Carbon-Enhanced Panel Activated carbon + meltblown MERV 9 · ISO ePM2.5 50% 0.5–5 µm + VOC adsorption 610×610×46 2,200 (at 1.8 m/s) 60 Pa 6–12 months (odor/adsorption dependent) Office buildings, kitchens, light industry ISO 9001 · ISO 16890 650 India 3 90
AFK-1003 High Efficiency HEPA Glass fiber HEPA media EN 1822 H13 · ≥99.95% at MPPS ≥0.3 µm (MPPS testing) 610×610×96 1,200 (designed for laminar systems) 180 Pa 12–24 months (application dependent) Cleanrooms, medical, pharmaceutical EN 1822 · ISO 9001 2,300 Germany 5 120
AFK-1004 Mini-Pleat Electrostatically charged microfibers MERV 11 · ISO ePM2.5 65% 0.3–2.5 µm 305×305×46 600 (at 1.5 m/s) 70 Pa 3–9 months (indoor air quality dependent) Residential HVAC, small commercial units ISO 16890 · CE 180 USA 3 85
AFK-1005 Deep-Bed Bag Multi-layer glass fiber MERV 13 · ISO ePM1 50% ≥1.0 µm 500×500×400 (bag depth) 4,500 (industrial AHU) 120 Pa 9–18 months (process dependent) Industrial AHU, paint booths ISO 9001 1,800 Italy 4 100
AFK-1006 Washable Metal Pre-filter Aluminium mesh Pre-filter stage (MERV 2–4) >10 µm (coarse dust) 610×305×25 Variable (low resistance) 12 Pa (clean) Reusable; clean every 1–3 months Industrial intake, pre-filtration RoHS compliant 420 Mexico 5 200
AFK-1007 Nanofiber-Coated Pleat Nanofiber on spunbond substrate MERV 13 · ISO ePM1 65% 0.3–1.0 µm (high capture) 490×490×48 1,800 (at 1.8 m/s) 95 Pa 9–12 months Hospitals, schools, public buildings ISO 16890 · CE 510 Japan 3 95
AFK-1008 Pleat with PTFE Membrane PTFE membrane laminated to microglass ISO ePM1 75% · high-efficiency 0.1–1.0 µm 592×292×48 1,600 (at 1.6 m/s) 110 Pa 12 months (depending on loading) Laboratory ventilation, fine dust control ISO 9001 · ISO 16890 780 China 4 110
AFK-1009 Compact Electrostatic Electret-treated meltblown MERV 12 · ISO ePM2.5 70% 0.5–2.5 µm 300×300×25 480 (portable units) 55 Pa 3–6 months (residential) Portable air purifiers, residential units CE · ISO 16890 160 Poland 3 80
AFK-1010 Industrial Coalescer Layered fiberglass + hydrophobic coating Liquid/aerosol coalescing efficiency ≥99% 0.1 µm aerosols (coalescence) 610×610×300 8,000 (large AHU) 200 Pa 12–24 months (process dependent) Oil mist removal, industrial exhaust ISO 9001 · industry-specific test reports 3,250 USA 5 130

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Air Filter Kit Your End-to-End Solution Outperforms the Competition

Air Filter Efficiency and Lifecycle Cost: Quarterly Performance Metrics

This chart presents quarterly performance metrics for a representative air filter kit across eight consecutive quarters, comparing filtration efficiency (percentage of particles removed under standardized test conditions) with the estimated lifecycle cost per functional unit (in US dollars). Filtration efficiency shows a steady upward trend from 88.0% to 93.2%, reflecting iterative design improvements, media enhancements, or optimized installation and maintenance practices that reduce particle bypass and increase capture rates. Concurrently, lifecycle cost declines from $1,200 to $980, indicating lower total cost of ownership driven by extended service intervals, reduced replacement frequency, material cost reductions, or improved operational energy efficiency. The inverse relationship shown here—rising efficiency with falling lifecycle cost—is a desirable outcome demonstrating that performance gains need not always increase expenses; instead, targeted engineering and process improvements can improve both metrics together. Short-term inflections, such as the modest cost drop between Q3 and Q4 of year one, may correspond to procurement discounts or a shift to longer-lasting filter media, while steady efficiency gains after Q1 of year two suggest successful quality-control stabilization. For decision-makers, the dual-axis visualization highlights trade-offs and synergies: prioritize interventions that shift both series in the favorable direction (higher efficiency, lower cost). Key operational takeaways include monitoring incremental efficiency gains per dollar spent, validating field performance against laboratory metrics, and tracking maintenance-related downtime as a hidden cost contributor. Organizations can use this pattern to benchmark new filter options, forecast budget impact, and set procurement specifications that emphasize both air quality outcomes and total lifecycle economics. Continual data collection and validation will ensure these trends are sustained and that improvements are attributable to specific changes in supply chain, design, or maintenance protocols.

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