Sustainable Architecture - Architecture: Advanced Topics | Lecture Notes - YNetStudyHub
Architecture: Advanced Topics

Sustainable Architecture

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Explore the principles of sustainable architecture, including green building practices, energy-efficient design, use of renewable materials, and implementing eco-friendly technologies in construction.

Sustainable Architecture – Quick Reference Notes


1. Core Definition

Sustainable architecture (also called green or eco‑architecture) designs, constructs, and operates buildings in a way that minimizes environmental impact, conserves resources, and promotes the health and well‑being of occupants over the building’s entire life cycle.


2. Why It Matters

Issue Architectural Impact Sustainable Response
Climate change Buildings account for ~40 % of global energy use & 30 % of CO₂ emissions. Reduce energy demand, use low‑carbon materials.
Resource depletion Extraction of concrete, steel, timber, and water. Choose renewable, recycled, or locally sourced materials; implement water‑saving systems.
Urban heat islands Dense, impermeable surfaces raise city temperatures. Green roofs, reflective façades, vegetation.
Human health Poor indoor air quality, inadequate daylight. Passive ventilation, non‑toxic finishes, daylighting.

3. The Life‑Cycle Approach

  1. Planning & Site Selection

    • Prioritize brownfield or infill sites.
    • Conduct a Site Analysis: climate, orientation, vegetation, water flow, transport links.
    • Use Strategic Environmental Assessment (SEA) to evaluate alternatives.
  2. Design & Materials

    • Passive design (orientation, shading, thermal mass).
    • Material selection: low embodied energy, recycled content, FSC‑certified wood, bio‑based composites.
    • Modular/Prefabricated components to reduce waste.
  3. Construction

    • Implement a Construction Waste Management Plan (target >90 % diversion).
    • Use low‑VOC adhesives, paints, sealants.
    • Monitor on‑site energy use (solar generators, efficient equipment).
  4. Operation & Maintenance

    • Install high‑efficiency HVAC, LED lighting, smart controls.
    • Use Building Management Systems (BMS) for real‑time monitoring.
    • Schedule regular commissioning and retro‑commissioning.
  5. End‑of‑Life / De‑construction

    • Design for disassembly (reversible connections, labelled components).
    • Plan for material reuse or recycling (e.g., steel, timber, concrete aggregate).

4. Key Performance Metrics

Metric What It Measures Typical Target
Energy Use Intensity (EUI) kWh/m²·yr of operational energy < 30 kWh/m²·yr (net‑zero goal)
Embodied Carbon CO₂e per kg of material or per m³ of building < 150 kg CO₂e/m³ (varies by typology)
Water Use Intensity (WUI) Liters per occupant per day < 50 L/occupant·day
Indoor Environmental Quality (IEQ) Air quality, daylight, acoustic comfort Meets WELL/LEED IEQ credits
Thermal Comfort PMV (Predicted Mean Vote) range –0.5 to +0.5 Achieved through passive & active systems

5. Design Strategies

5.1 Passive Design

  • Orientation & Layout: Maximize north‑facing glazing (in NH) for winter solar gain; minimize east/west glazing to reduce overheating.
  • Thermal Mass: Use concrete, rammed earth, or masonry to store
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Unit Syllabus 8 Topics
Sustainable Architecture
Parametric Design in Architecture
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Biophilic Design
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Adaptive Reuse of Buildings
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High-Tech Materials in Architecture
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Parametricism Movement
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Urban Planning and Design
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Virtual Reality in Architecture
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