Gross Area
150 m²
Storeys
2 Storeys
Bedrooms
4 Beds
Garage
No Garage
Structure
CFS S350GD+Z275
Energy Level
Passivhaus / A+ Ready
Important Note: Veranda, garage, terrace, pool, BASEMENT FLOOR, etc. are NOT included in areas & PRICES. Semi-detached / twin models: 1 unit basis.
Architectural Concept

Model 69-219 — 150 m², 2 storeys

Model 69-219 architectural design: 150 m², flexible layout and high-performance steel envelope adaptable to Passive House benchmarks.

Compact & Economic Urban Living & Townhouses
BIM Quantities & Pre-Engineering

Material Takeoff & Construction Metrics for Model 69-219

Pre-calculated per Eurocode 3 & DIN 4108

For this 150 m² model, the structural steel tonnage, insulation cubic volume and bolted assembly timeline have been pre-engineered using SerVilla production benchmarks:

Steel Tonnage
~6.6 Ton
S350GD+Z275 (44 kg/m²)
Wall Envelope
~208 m²
Continuous wrap area
Roof Area
~86 m²
Waterproofed envelope
Glazing Area
~30 m²
Uw ≤ 0.80 W/m²K (Argon)
Rockwool Volume
~87.6 m³
Cavity + exterior slab
Assembly Time
9 - 12 Days
Bolted dry erection
Export Logistics: This model ships in approximately 2 Trucks / 40' HC Containers flat-packed.
Site delivery across Europe
Architectural Floor Plan

Floor Plan & Architectural Layout for Model 69-219

150 m² • 2 Storey • 4 Beds

The authentic architectural floor plan and layout for this design are shown in the gallery drawings above. Cold-formed steel (CFS) framing allows open-span flexibility without intrusive load-bearing concrete columns. Our architects can adapt room configurations to your site orientation and requirements.

Full Plans Catalog (1,281 Models) Request Plan Adaptation on WhatsApp
Interactive Simulator

Energy Standard & Cost Savings Simulator for Model 69-219

Select your target energy efficiency standard and climate zone to simulate annual heating demand, utility bill savings and PV solar potential.

Passive Standard Savings
%88
Blower Door Guarantee: Airtight envelope membranes guarantee an air change rate of n50 <= 0.60 h⁻¹ to prevent unconditioned ventilation heat loss.
15 kWh
Heating Demand (m²/yr)
~6.300 €
Annual Energy Savings
~126.000 €
20-Year Cumulative Savings
~3.5 Ton
Annual CO₂ Offset
240 mm
Recommended Wall Insulation
~13.8 kWp
Roof Solar PV Potential
Engineering Benchmark

Model 69-219: SerVilla CFS Steel vs. Traditional Concrete

SerVilla Cold-Formed Steel engineering delivers decisive structural and environmental advantages over conventional wet-concrete construction:

Seismic Resilience
SerVilla Hafif Çelik (CFS)
10x Lighter & Ductile
Earthquake load is proportional to mass. High ductility dissipates seismic energy without brittle fracture.
Traditional Concrete / Masonry
Heavy & Brittle
High structural dead-load attracts maximum inertia force with risk of column joint failure.
Thermal Bridges & Mould
SerVilla Hafif Çelik (CFS)
Zero Thermal Bridge Envelope
Continuous exterior rockwool blanket completely encases framing; moisture-variable membrane ensures zero mould.
Traditional Concrete / Masonry
Severe Thermal Bridging
Concrete columns and slabs act as cold thermal conduits leading to condensation and corner mildew.
Construction Speed
SerVilla Hafif Çelik (CFS)
6 to 10 Weeks Rapid Turnaround
All elements pre-engineered in factory, rapid bolted dry erection on site regardless of rain or freezing cold.
Traditional Concrete / Masonry
12 to 18 Months Protracted
Wet trades require 28-day curing cycles, weather delays and prolonged on-site labor overhead.
Net Usable Living Area
SerVilla Hafif Çelik (CFS)
+8% to +10% More Net Usable Space
Slim high-performance envelope saves up to 10-15 cm per perimeter wall, adding a full extra room equivalent.
Traditional Concrete / Masonry
Thick Walls Eat Floor Area
Bulky 40cm structural masonry and concrete pilasters significantly reduce net sellable/livable floor space.
Carbon Footprint & Eco
SerVilla Hafif Çelik (CFS)
90%+ Recyclable Structural Steel
Zero-water dry assembly, zero construction debris, fully recyclable circular economy material.
Traditional Concrete / Masonry
High Carbon & Landfill Waste
Cement production accounts for 8% of global CO₂ emissions; demolition generates tons of non-recyclable rubble.
Scroll horizontally to view all columns 3-Column Benchmark
Evaluation Criteria SerVilla Hafif Çelik (CFS) Traditional Concrete / Masonry
Seismic Resilience 10x Lighter & Ductile
Earthquake load is proportional to mass. High ductility dissipates seismic energy without brittle fracture.
Heavy & Brittle
High structural dead-load attracts maximum inertia force with risk of column joint failure.
Thermal Bridges & Mould Zero Thermal Bridge Envelope
Continuous exterior rockwool blanket completely encases framing; moisture-variable membrane ensures zero mould.
Severe Thermal Bridging
Concrete columns and slabs act as cold thermal conduits leading to condensation and corner mildew.
Construction Speed 6 to 10 Weeks Rapid Turnaround
All elements pre-engineered in factory, rapid bolted dry erection on site regardless of rain or freezing cold.
12 to 18 Months Protracted
Wet trades require 28-day curing cycles, weather delays and prolonged on-site labor overhead.
Net Usable Living Area +8% to +10% More Net Usable Space
Slim high-performance envelope saves up to 10-15 cm per perimeter wall, adding a full extra room equivalent.
Thick Walls Eat Floor Area
Bulky 40cm structural masonry and concrete pilasters significantly reduce net sellable/livable floor space.
Carbon Footprint & Eco 90%+ Recyclable Structural Steel
Zero-water dry assembly, zero construction debris, fully recyclable circular economy material.
High Carbon & Landfill Waste
Cement production accounts for 8% of global CO₂ emissions; demolition generates tons of non-recyclable rubble.
Architectural Details

Architectural Sections & Layer Anatomy for Model 69-219

Examine the layer-by-layer architectural anatomy of walls, roof, intermediate floor and RAL window installation with exact thermal conductivity and fire ratings:

1:1 CAD/CAM Detail Eurocode 3 • Passivhaus • DIN 4108

Interactive Architectural Sections & Junction Details

Explore the layer-by-layer anatomy of walls, floors, foundations, roofs and precision window installation interfaces.

✓ 4 Systems • High-Precision Details

Exterior Wall 1: Rendered Insulation (EIFS / ETICS)

Classic passive house wall with continuous 120 mm exterior rockwool EIFS fully eliminating all thermal bridging through steel studs, vapour-open from inside out.

U = 0.12 W/m²K • REI 90 • Rw = 56 dB
U-Value
0.12 W/m²K
Total Thickness
335 mm
Sound Insulation
56 dB
Fire Rating
REI 90 (Euroclass A1/A2)
Thermal Bridge (Ψ)
≤ 0.010 W/mK
CAD/CAM PRECISION • CROSS SECTION 1:1 VECTOR SPEC ONLINE INTERACTIVE
EXTERIOR (COLD) INTERIOR (20°C) 1 2 3 4 5 6 7 ARCHITECTURAL LAYER SPECIFICATION (OUTSIDE TO INSIDE): [1] Silicone Exterior Render & Reinforcing Mesh (10 mm) [2] Continuous Rockwool EWI 140 kg/m³ (120 mm - λ=0.035) [3] BoardeX / Fiber Cement Weather Sheathing (12.5 mm) [4] C140 Galvanized Steel Frame + Rockwool Infill (140 mm) [5] Akıllı Buhar ve Hava Sızdırmazlık Zarı (Kırmızı Hat - n50 ≤ 0.60) [6] Service Cavity Battens (40 mm) • [7] Double Gypsum Board (25 mm) P3 ENVELOPE PACKAGE P1 & P2 STRUCTURAL FRAME P4 INTERIOR FINISH U = 0.12 W/m²K • REI 90 • Rw = 56 dB

Physical Layer Breakdown & Material Specification

7 Layers
1 Silicone Exterior Render & Mesh
P3
10 mm λ: 0.75 W/mK μ: 35 A2-s1,d0
Hydrophobic, breathable finish
2 Continuous Exterior Rockwool Slab
P3
120 mm λ: 0.035 W/mK μ: 1.0 A1
Continuous external thermal blanket
3 External Structural Sheathing Board
P2
12.5 mm λ: 0.25 W/mK μ: 15 A1
Wind & seismic shear diaphragm
4 CFS Stud Frame (C140) + 140 mm Mineral Wool
P1/P2
140 mm λ: 0.034 W/mK μ: 1.0 A1
Primary load-bearing steel skeleton
5 Smart Vapour & Airtightness Membrane
P2
0.5 mm λ: 0.20 W/mK μ: Sd=0.25-25m E
Envelope airtight seal n50 <= 0.60
6 Service Cavity (Battens)
P4
40 mm λ: 0.040 W/mK μ: 1.0 A1
Piping & wiring without piercing membrane + stud thermal break
7 Double Fire/Acoustic Gypsum (Type F) / Fermacell
P4
25 mm λ: 0.25 W/mK μ: 10 A2-s1,d0
Impact durability and fire shielding
Scroll horizontally to view all layer parameters 7 Layers
No Material & Layer Specification Thickness Conductivity (λ) Vapour / Sd Fire Class Delivery Package Building Physics Function
1 Silicone Exterior Render & Mesh 10 mm 0.75 W/mK 35 A2-s1,d0 P3 Hydrophobic, breathable finish
2 Continuous Exterior Rockwool Slab 120 mm 0.035 W/mK 1.0 A1 P3 Continuous external thermal blanket
3 External Structural Sheathing Board 12.5 mm 0.25 W/mK 15 A1 P2 Wind & seismic shear diaphragm
4 CFS Stud Frame (C140) + 140 mm Mineral Wool 140 mm 0.034 W/mK 1.0 A1 P1/P2 Primary load-bearing steel skeleton
5 Smart Vapour & Airtightness Membrane 0.5 mm 0.20 W/mK Sd=0.25-25m E P2 Envelope airtight seal n50 <= 0.60
6 Service Cavity (Battens) 40 mm 0.040 W/mK 1.0 A1 P4 Piping & wiring without piercing membrane + stud thermal break
7 Double Fire/Acoustic Gypsum (Type F) / Fermacell 25 mm 0.25 W/mK 10 A2-s1,d0 P4 Impact durability and fire shielding
Delivery Package Demarcation Lines:
P1: P1: Structural Light Gauge Steel Frame & Anchors
P2: P2: Frame + Sheathing + Cavity Insulation + Vapour Control
P3: P3: Weather-Tight Shell (Continuous EWI + Windows + Roof Waterproofing)
P4: P4: Internal Service Zone + Screed + Double Lining / Finishes

All cross-sections are engineered to Passive House Institute (PHI) standards, Eurocode 3 cold-formed steel rules and DIN 4108 condensation criteria. Contact our engineering desk for project-specific calculations.

Discuss This Section With Our Engineers

Architectural & Engineering Concept

This architectural concept is recorded as 150 m² with 2 storeys and 4 bedrooms in the source archive. Use code 69-219 when enquiring. The area basis, room layout and technical specifications are confirmed with site-specific engineering before production and energy adaptation.

Adapt this concept to your site

This design is a proven starting concept. Foundation interface, wall assemblies and insulation layers are engineered specifically for your building plot and target energy benchmark.

Model 69-219: Building Physics & Technical Targets

Passive House Ready
Structural Skeleton Eurocode 3
Engineering Specification Cold-Formed Steel (CFS) S350GD+Z275
Performance Benchmark Eurocode 3 (EN 1993-1-3) • Seismic & Snow Verified
External Wall Insulation U ≤ 0.14
Engineering Specification Cavity mineral wool + continuous exterior insulation
Performance Benchmark U = 0.11 – 0.14 W/m²K (Thermal bridge free)
Roof & Ceiling Envelope U ≤ 0.11
Engineering Specification Double cross-insulation + EPDM / Zinc roof cover
Performance Benchmark U = 0.08 – 0.11 W/m²K (Thermal barrier)
Windows & Glazing Uw ≤ 0.80
Engineering Specification Triple-pane Low-E argon-filled, warm-edge spacer
Performance Benchmark Ug ≤ 0.60 W/m²K • Uw ≤ 0.80 W/m²K
Airtightness Layer n50 ≤ 0.60
Engineering Specification Humidity-variable vapor check membrane + airtight taping
Performance Benchmark n50 ≤ 0.60 h⁻¹ (Blower Door test target)
Mechanical Ventilation ≥ %85 MVHR
Engineering Specification Heat recovery fresh air ventilation (MVHR)
Performance Benchmark ≥ 85% Thermal Efficiency
Scroll horizontally to view all parameters 6 Structural Components
Component / Layer Engineering Specification Performance Benchmark
Structural Skeleton Cold-Formed Steel (CFS) S350GD+Z275 Eurocode 3 (EN 1993-1-3) • Seismic & Snow Verified
External Wall Insulation Cavity mineral wool + continuous exterior insulation U = 0.11 – 0.14 W/m²K (Thermal bridge free)
Roof & Ceiling Envelope Double cross-insulation + EPDM / Zinc roof cover U = 0.08 – 0.11 W/m²K (Thermal barrier)
Windows & Glazing Triple-pane Low-E argon-filled, warm-edge spacer Ug ≤ 0.60 W/m²K • Uw ≤ 0.80 W/m²K
Airtightness Layer Humidity-variable vapor check membrane + airtight taping n50 ≤ 0.60 h⁻¹ (Blower Door test target)
Mechanical Ventilation Heat recovery fresh air ventilation (MVHR) ≥ 85% Thermal Efficiency

Project Execution Steps for Model 69-219

STEP 01
Site Adaptation
Engineering verification for soil bearing, snow/wind loads and local zoning.
STEP 02
CNC Fabrication
Precision roll-forming of S350GD galvanized steel with zero on-site material waste.
STEP 03
Flat-Pack Delivery
Compact container/truck dispatch with certified export documentation directly to site.
STEP 04
Frame Erection
Rapid bolted assembly in 5-10 days under SerVilla engineering supervision.
STEP 05
Envelope & Testing
Continuous thermal wrap, airtight taping and mandatory Blower Door validation.

4 Delivery Packages & Budget Allocation for Model 69-219

Select your preferred procurement level from structural frame kit to weather-tight or complete turnkey package.

150 m² Footprint
P3 - Weather-Tight Shell

P3 Weather-Tight Envelope Package

Galvanized CFS frame, continuous exterior rockwool EIFS, roof waterproofing and certified triple-glazed windows ready for Blower Door test.

Est. Investment Band
~88.500 – 117.000 €
(590 – 780 €/m²)
Included in Package
  • Cold-formed S350GD galvanized steel frame
  • 140mm mineral wool cavity insulation
  • Continuous exterior mineral wool wrap (U <= 0.12)
  • Triple-glazed Argon windows (Uw <= 0.80)
  • Airtight membrane & sealing system
Local Contractor Scope
  • Foundation slab & ground engineering
  • Local planning permits & fees
  • Interior decorative finishes
Important Note: Veranda, garage, terrace, pool, BASEMENT FLOOR, etc. are NOT included in areas & PRICES. Semi-detached / twin models: 1 unit basis.
Energy Efficiency & ROI

Annual Energy Savings & ROI Benchmark for Model 69-219

Annual Energy Reduction
%88

Model 69-219 (150 m²) requires only <= 15 kWh/m²a heating/cooling demand compared to 120 kWh/m²a for standard concrete masonry. The thermal-bridge-free steel envelope delivers thousands of Euros in direct annual energy savings:

Annual Cost Savings
~4.410 € / year
~15.750 kWh/year saved
20-Year Cumulative Savings
~88.200 €
Net energy capital preservation
Annual CO₂ Offset
~3.5 Tons / yr
Zero-carbon footprint contribution

Standard & Country Compliance for Model 69-219

51 Countries & 18 Standards

Model 69-219 can be factory-engineered to comply with 18 European energy standards (including KfW 40, Minergie, RE2020, BENG and Passive House) with tailored insulation thickness. Structural statics are calculated per Eurocode for site-specific snow, wind and seismic loads across 51 European countries.

Model 69-219 can be structurally optimized according to Eurocode 3 for site-specific wind, snow, and seismic actions across 51 European countries.

Consult Our Structural Engineers on Model 69-219

Share your project location and desired package. Our engineering team prepares a preliminary feasibility including structural adaptation and transport.

Transparency & Certification Note: Designs displayed on Passive Steel Homes represent architectural starting points. Official certification is issued only upon project-specific energy calculations, local climate simulation and on-site Blower Door verification.

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Important Note: Veranda, garage, terrace, pool, BASEMENT FLOOR, etc. are NOT included in areas & PRICES. Semi-detached / twin models: 1 unit basis.
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Frequently Asked Questions

Essential answers regarding steel construction, energy targets and project delivery.

Yes. Any architectural model can be engineered with continuous exterior insulation, thermal-break steel profiles, triple-glazed certified windows, and airtight membranes to meet Passive House or low-energy benchmarks.

Absolutely. Light gauge steel framing provides complete architectural freedom. Interior partitions can be adjusted without compromising structural stability.

Floor areas in our models represent preliminary architectural footprints. Detailed gross and net internal floor area schedules are finalized during project engineering.

You can select from four defined packages: P1 Structural Frame, P2 Frame + Insulation, P3 Weather-Tight Shell, or P4 Complete Construction Package.

Select your preferred model, choose your target country and delivery package, and click Request Quote. Your inquiry will generate a pre-formatted message for direct WhatsApp discussion.

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