Luxury villa with floor-to-ceiling aluminium window systems supplied from Turkey

Istanbul, Türkiye · Aluminium Industry Insights

Aluminium Systems Blog & Expert Guides

Technical insights, specification guidance and B2B export knowledge from the Afes Aluminium team.

Engineering Authority & International Compliance

CE Certified Fenestration Systems Manufacturer & Exporters

Precision-Engineered Thermal Break Windows, Architectural Doors, Sliding Systems & Structural Glazed Façades for Global B2B Construction Projects

CE Certified Architectural Product Portfolio

Explore our high-performance aluminum window and door systems compliant with AS2047, AS2088, EN 14351-1, and European Passive House energy standards.

Double Glazing AS2047 AS2088 Two Track Sliding Window

AS2047 Double Glazed Two Track Sliding Aluminum Window

  • Profile Grade: 6063-T5 / T6 Architectural Alloy
  • Thermal Barrier: PA66-GF25 Polyamide Strip
  • Compliance: AS2047, AS2088 Waterproof Standard
Thermal Break Soundproof Openswing Windows With Screen

Thermal Break Soundproof Openswing Window for Luxury Villas

  • Acoustic Isolation: Acoustic Rating up to Rw 42 dB
  • Integrated Flyscreen: High-tensile Mesh Screen
  • Glazing Capacity: 24mm to 36mm Double Glazed
Energy Efficient Noise Reduction Casement Window

Energy Efficient Noise Reduction Casement Windows

  • Air Permeability: EN 12207 Class 4 Certified
  • Locking Mechanism: Multi-Point Security System
  • Surface Finish: QUALICOAT Powder Coating
Hurricane Impact Proof Double Glazed Sliding Window

Hurricane Impact Proof Double Glazed Sliding Window System

  • Wind Resistance: EN 12210 Class C5 / ASTM E1300
  • Glass Type: Laminated Tempered Safety Glass
  • Structure: Reinforced Heavy-Duty Outer Frame
French Inward Opening Casement Window Aluminum Alloy

European French Inward Opening Thermal Break Window

  • Design Style: European Classic Dual-Axis Tilt-Turn
  • Thermal Performance: U-Factor ≤ 1.3 W/m²K
  • Gasket System: Triple EPDM Continuous Sealing
Aluminum Sliding Windows With Safety Ventilation Grill

Aluminum Sliding Windows with Security Ventilation Grill

  • Security Feature: Integrated Structural Aluminum Grill
  • Water Tightness: EN 12208 Class E1050 Level
  • Application: High-rise Residential & Apartments
CE Marked Triple Glazed Passive House Window

CE Marked Triple Glazed Thermal Break Passive House Window

  • U-Value Rating: Passive House Standard (Uw ≤ 0.8 W/m²K)
  • Glazing Unit: 48mm Triple Low-E Argon Filled
  • Thermal Barrier: 34mm Multicavity Polyamide Strip
Custom Thermal Break Aluminum Doors and Windows

Custom Energy-Saving Thermal Break Aluminum Doors & Windows

  • Customization: Full Profile Depth & Color Match
  • Hardware: Siegenia / Roto European Standard
  • Export Standard: Sealed Wooden Crate Container Loading
100%
CE EN 14351-1 Compliant
Uw 0.78
Ultra-Low U-Value Efficiency
6063-T6
High-Tensile Aluminum Alloy
50+
Global Export Destinations

01 Fenestration System Selection & Technical Engineering Framework

Selecting architectural fenestration for commercial towers, luxury residential villas, and institutional developments requires balancing thermal performance, acoustic attenuation, structural wind resilience, and solar control. Modern building codes, including the European Union Energy Performance of Buildings Directive (EPBD) and North American NFRC benchmarks, demand strict verification of complete assembly U-factors ($U_w$) rather than isolated center-of-glass values ($U_c$).

Technical Gain Insight: A window’s thermal bridge efficiency is heavily dictated by the thermal break’s width and geometry. Utilizing PA66-GF25 (Polyamide 66 reinforced with 25% glass fiber) breaks reduced systemic frame thermal conductivity ($U_f$) to below $1.5 W/m^2K$, preventing condensation under severe temperature differentials ($\Delta T > 30^\circ C$).

When evaluating structural integrity, dynamic wind pressure loads must dictate profile chamber depth and inertia coefficient ($I_x, I_y$). For coastal and hurricane-prone zones, fenestration profiles must withstand peak pressure tests up to 6000 Pa (Class C5 under EN 12210 or Florida Building Code TAS 201/202/203 protocols).

System Category Thermal Transmittance ($U_w$) Acoustic Reduction ($R_w$) Max Wind Load (EN 12210) Optimal Project Application
Triple-Glazed Passive House 0.75 - 0.90 W/m²K 40 - 48 dB Class C5 (2000+ Pa) Cold Climates / Net-Zero Carbon Buildings
Thermal Break Casement 1.20 - 1.50 W/m²K 35 - 42 dB Class C4 (1600 Pa) Luxury Residential Villas & Commercial Offices
Lift & Slide Heavy Duty 1.30 - 1.70 W/m²K 32 - 38 dB Class C3 (1200 Pa) Wide-Span Balconies & Oceanfront Estates
Non-Thermal Architectural 2.80 - 3.50 W/m²K 28 - 32 dB Class C2 (800 Pa) Interior Partitions & Tropical Mild Zones

Future Procurement Trends in Architectural Fenestration

Strategic insights for B2B importers, general contractors, and developers adapting to global decarbonization mandates and smart building envelope engineering.

1. Low-Embodied Carbon Aluminum

Procurement is rapidly shifting toward aluminum extrusions smelted using renewable hydroelectric energy. Hydro-processed low-carbon aluminum yields carbon footprints under 4.0 kg $CO_2$/kg Al, aligning with BREEAM and LEED v4.1 sustainability criteria.

2. BIM Level 3 Integration

Global AEC projects mandate prefabricatedfenestration units supplied with digital twins. Manufacturers must provide Industry Foundation Classes (IFC) and Revit LOD 400 objects containing embedded thermal, acoustic, and maintenance metadata.

3. Electrochromic & BIPV Glass

Next-generation architectural envelopes integrate Dynamic Electrochromic Smart Glass and Building-Integrated Photovoltaics (BIPV). Fenestration frames now feature internal cable raceways and automated drive micro-actuators.

02 Structural & Material Technology Roadmap

The fenestration sector is experiencing a paradigm shift driven by structural silicone structural glazing (SSG), ultra-slim sightlines, and multi-chambered polyamide insulation blocks. As modern architecture demands expansive glass facades with minimal framing width, aluminum alloy metallurgy and extrusion geometry have evolved.

Extrusion Precision & Tempering

Using primary EN AW-6063 T6 and EN AW-6060 T66 aluminum alloys ensures superior yield strength ($R_{p0.2} \ge 170 \text{ MPa}$) and tensile strength ($R_m \ge 215 \text{ MPa}$). Micro-extrusion tolerances adhere to EN 12020-2 precision standards, ensuring seamless corner joint crimping with double-component epoxy adhesives.

Advanced Surface Coating Durability

To withstand aggressive industrial atmospheres and coastal salt-spray environments (ASTM B117 salt fog testing exceeding 3,000 hours), architectural aluminum receives QUALICOAT Seaside-class architectural powder coating or QUALANOD anodizing (20-25 micron layer thickness).

03 Enterprise Advantages & Global Supply Chain Capabilities

Operating out of Istanbul's premier industrial extrusion cluster, our manufacturing node combines European technical engineering precision with optimized export logistics across the UK, Europe, the Middle East, and the Americas.

End-to-End Certification

Fully certified under CE EN 14351-1 (Windows & External Pedestrian Doorsets), ISO 9001:2015 Quality Management, and ISO 14001 Environmental Management Systems.

Bespoke Profile Customization

In-house CAD/CAM tooling facility allowing custom extrusion die development within 15 days, tailored to specific architectural architectural shop drawings.

Rigorous Quality Testing

Every batch undergoes air tightness, water pressure resistance, deflection testing, and hardware cycle-testing (200,000 opening cycles minimum).

B2B Procurement & Engineering FAQ

Technical clarity for project managers, structural engineers, and global fenestration buyers.

Q: How do your fenestration systems satisfy CE Marking EN 14351-1 compliance?
Our window and door assemblies are fully tested and certified by accredited European Notified Bodies. Each factory shipment includes an official Declaration of Performance (DoP) documenting verified test performance for Air Permeability (EN 12207), Watertightness (EN 12208), Resistance to Wind Load (EN 12210), and Thermal Transmittance (EN ISO 10077-2).
Q: What alloy specifications and thermal break materials are utilized in production?
We use high-grade EN AW-6063-T5/T6 and 6060-T66 primary aluminum billets. Thermal barriers consist of imported Technoform PA66-GF25 (Polyamide 66 reinforced with 25% glass fiber) insulating struts, which resist structural shear stress while withstanding powder coating curing oven temperatures up to 200°C.
Q: Can window and curtain wall systems be customized for high wind-load environments?
Yes. For coastal structures, tropical cyclone regions, or super-tall commercial facades, our structural engineering team conducts finite element analysis (FEA) to select reinforced mullions and steel tube inserts. Systems can be specified to meet up to 6000 Pa wind load resistance (EN 12210 Class C5 / ASTM E330).
Q: What surface finish guarantees are provided for marine or harsh environments?
We provide QUALICOAT Class 2 / Class 3 powder coating and QUALANOD 20-25µm anodized finishes. For marine applications within 1 km of saltwater shorelines, we apply a pre-anodization (flash anodizing) treatment before powder coating to provide maximum protection against filiform corrosion.
Q: What is the standard production lead time and export packaging protocol?
Standard production lead times range between 3 to 4 weeks post shop-drawing approval. Extrusions and assembled units are wrapped in protective shrink-film, corner-protected, and packed into steel-reinforced ISPM-15 compliant sea-worthy wooden crates for FCL (Full Container Load) export shipping.

Ready to Elevate Your Architectural Envelope Standard?

Consult with our structural engineering and export department today for complete technical schedules, AutoCAD/BIM detail libraries, and competitive factory-direct project quotes.