Maquette maquettes d'architecture et d'urbanisme
Maquette maquettes d'architecture et d'urbanisme
Maquette maquettes d'architecture et d'urbanisme
Maquette maquettes d'architecture et d'urbanisme
Maquette maquettes d'architecture et d'urbanisme
Maquette maquettes d'architecture et d'urbanisme

1/75 3d Architectural Interior Model Miniature House Model for Sale

Type
Prix
€2,500.00
Quantité
  • Professional Architectural Scale Model & 3D Building Modeling Services


    1. Introduction

    In the ever-evolving fields of architecture, engineering, and construction (AEC), ​professional architectural scale models and ​3D building modeling serve as critical tools for visualizing, validating, and communicating design intent. Our services specialize in crafting ultra-precise, high-fidelity scale models and 3D-constructed representations that bridge the gap between conceptual designs and real-world execution. Combining advanced manufacturing technologies with artisanal craftsmanship, we deliver models that empower architects, urban planners, contractors, and developers to make informed decisions, streamline workflows, and showcase projects with unmatched clarity.


    2. Product Overview

    2.1 Architectural Scale Models

    Architectural scale models are physical replicas of buildings, landscapes, or urban developments, meticulously crafted to represent spatial relationships, materiality, and design details.

    • Applications:

      • Design validation and client presentations.
      • Urban planning and zoning approvals.
      • Construction sequencing and stakeholder engagement.
      • Marketing and sales for real estate developments.
    • Key Features:

      • Precision Scaling: Ranging from 1:50 (detailed interiors) to 1:1000 (urban masterplans).
      • Material Realism: Simulated textures for glass, steel, wood, and concrete.
      • Interactive Elements: Removable roofs, modular components, and embedded lighting systems.

    2.2 3D Building Modeling

    3D building modeling involves creating digital or physical representations of structures using CAD software, BIM integration, and advanced fabrication techniques.

    • Applications:

      • Virtual design validation and clash detection.
      • Construction documentation and prefabrication planning.
      • Augmented reality (AR) and virtual reality (VR) integration.
    • Key Features:

      • Parametric Design: Grasshopper scripts for adaptive façades and complex geometries.
      • BIM Compliance: IFC-compatible models for seamless collaboration.
      • Digital Twins: Real-time synchronization with IoT sensors for performance monitoring.

    3. Technical Specifications

    3.1 Precision & Tolerances

    • Scales: Customizable from 1:20 to 1:2000, optimized for project requirements.
    • Dimensional Accuracy:
      • Laser Cutting: ±0.1 mm tolerance for acrylic and MDF components.
      • 3D Printing: ±0.05 mm layer resolution using SLA/DLP technologies.
      • CNC Machining: ±0.02 mm for metal and ABS parts.

    3.2 Material Portfolio

    • Structural Materials:
      • ABS Plastic: Lightweight, impact-resistant, ideal for intricate details.
      • Acrylic: High transparency for windows, skylights, and glass façades.
      • Metal Alloys: Aluminum and stainless steel for load-bearing components.
      • Wood: Sustainable birch or walnut for premium finishes.
    • Landscaping Materials:
      • Epoxy Resins: Simulate water bodies, roads, and terrain.
      • Synthetic Turf: UV-resistant miniature grass and foliage.
      • 3D-Printed Elements: Custom trees, vehicles, and figurines.

    3.3 Advanced Technologies

    • 3D Printing:
      • SLA (Stereolithography): 25–100 µm layer resolution for smooth surfaces.
      • FDM (Fused Deposition Modeling): Reinforced filaments for structural parts.
      • SLS (Selective Laser Sintering): Nylon-based powders for durable prototypes.
    • Laser Cutting & Engraving:
      • CO₂ Lasers: Precision-cutting of acrylic, wood, and composites.
      • Fiber Lasers: Etching metal surfaces with logos or textures.
    • CNC Machining:
      • 5-Axis Milling: Complex geometries for curved façades and organic shapes.
      • Micro-Drilling: Holes as small as 0.3 mm for mechanical assemblies.

    4. Manufacturing Process

    4.1 Design & Engineering

    • File Preparation:
      • Accepts 3D CAD files (Revit, Rhino, SketchUp), BIM models, or 2D blueprints.
      • Scale Optimization: Engineers adjust proportions for visual coherence and structural integrity.
    • Prototyping:
      • Digital Mockups: Photorealistic renders for client approval.
      • Physical Prototypes: 3D-printed sections to test assembly and functionality.

    4.2 Production Workflow

    1. Material Preparation:
      • Laser-cutting acrylic sheets for glazing.
      • CNC-machining ABS blocks for structural frames.
    2. 3D Printing:
      • SLA printers create detailed façades, railings, and decorative elements.
    3. Assembly:
      • Sub-Assembly: Gluing, screwing, or magnetizing modular parts.
      • Wiring: Integrating LED strips, fiber optics, and motorized components.
    4. Finition:
      • Painting: Airbrushed gradients, faux woodgrain, and metallic finishes.
      • Polishing: High-gloss edges for acrylic components.
      • Weathering: Artificial aging for historical or industrial models.

    4.3 Quality Assurance

    • 3D Scanning: Compare physical models to digital files for accuracy.
    • Stress Testing: Simulate handling, transportation, and environmental conditions (humidity, temperature).
    • Lighting Checks: Ensure seamless operation of LED and fiber-optic systems.

    5. Applications in Construction & Architecture

    5.1 Design Validation

    • Spatial Analysis: Test ergonomics, circulation, and sightlines.
    • Material Studies: Compare finishes (e.g., glass vs. stone) under different lighting.
    • Clash Detection: Identify conflicts between structural, mechanical, and electrical systems.

    5.2 Construction Planning

    • Sequencing Models: Demonstrate phased construction (e.g., foundation to roofing).
    • Prefabrication Templates: Use 3D-printed molds for concrete or steel components.
    • Safety Simulations: Visualize crane movements, scaffolding, and hazard zones.

    5.3 Stakeholder Communication

    • Client Presentations: Tangible models to showcase design intent.
    • Public Consultations: Engage communities with interactive urban models.
    • Investor Pitches: AR-enabled models to highlight ROI and sustainability features.

    6. Case Studies

    6.1 High-Rise Mixed-Use Development, Singapore

    • Client: CapitaLand.
    • Model Type: 1:100 scale with removable floors.
    • Features:
      • BIM Integration: Sync with Autodesk Revit for real-time updates.
      • AR Overlay: Display tenant information and energy performance via app.
    • Outcome: Reduced design revisions by 35% during client reviews.

    6.2 Heritage Restoration, Rome

    • Client: Italian Ministry of Culture.
    • Model Type: 1:50 scale of a Renaissance-era palace.
    • Features:
      • Hand-carved stone textures using CNC and artisan detailing.
      • UV-resistant coatings to preserve historical accuracy.
    • Outcome: Guided restoration teams in replicating original craftsmanship.

    6.3 Smart City Masterplan, Tokyo

    • Model Type: 1:1000 urban plan with IoT integration.
    • Features:
      • Digital Twin: Live data feeds for traffic, energy, and waste management.
      • Modular Design: Swappable districts for phased development.
    • Outcome: Secured government funding for sustainable infrastructure.

    7. Innovative Technologies

    7.1 Augmented & Virtual Reality

    • AR Scanning: Use apps like Unity Reflect to overlay HVAC systems or furniture layouts.
    • VR Walkthroughs: Meta Quest 3 integration for immersive client experiences.

    7.2 Digital Twins

    • IoT Sensors: Monitor real-time metrics (temperature, occupancy) in sync with physical models.
    • Predictive Analytics: Simulate maintenance schedules and energy consumption.

    7.3 Sustainable Materials

    • Recycled Filaments: 30% post-industrial ABS for 3D printing.
    • Biodegradable Resins: Eco-friendly alternatives for temporary models.

    8. Competitive Advantages

    8.1 Technical Expertise

    • Cross-Disciplinary Teams: Architects, engineers, and model-makers collaborate on every project.
    • Proprietary Software: Custom tools for lighting simulation and material optimization.

    8.2 Global Reach

    • Production Hubs: Facilities in Asia, Europe, and North America for fast turnaround.
    • DDP Shipping: Door-to-door delivery with pre-cleared customs.

    8.3 Customization

    • Tailored Solutions: Adapt models to regional building codes or cultural aesthetics.
    • Post-Delivery Support: Update models with new phases or technologies.

    9. Client Testimonials

    • Michael Tan, Director, Arup Singapore:
      "Their 3D-printed construction sequence model helped us identify critical path delays before breaking ground. A game-changer for our workflow."
    • Elena Rossi, Architect, Renzo Piano Building Workshop:
      "The precision of their scale models is unparalleled. They captured every nuance of our glass façade design."

    10. Conclusion

    Professional architectural scale models and 3D building modeling are not mere presentation tools—they are strategic assets that drive innovation, mitigate risks, and foster collaboration across the AEC industry. By merging cutting-edge technologies like AR, IoT, and digital twins with time-tested craftsmanship, we empower clients to navigate complex projects with confidence. Whether it’s a futuristic skyscraper, a heritage restoration, or a smart city blueprint, our models transform abstract ideas into tangible success.

    Partner with us to redefine the boundaries of architectural visualization and construction excellence.

Contactez-nous

Thanks for contacting us. We'll get back to you as soon as possible.