About This Course
This four-week, hands-on course shows you how to combine biodesign (biomimicry, living façades, green roofs, vertical greenery, bio-based materials) with AI-driven building and city analytics to improve comfort, reduce energy demand, and cut carbon emissions.
You’ll work step-by-step from building-scale fundamentals (comfort, daylight, shading, energy) to AI-based forecasting and optimisation, and finally expand to district and city-scale decision-making. The course ends with a practical capstone project where you model and compare “business-as-usual” vs “AI + biodesign–optimised” futures—linking building → district → city in a structured scenario workflow (in Google Colab).
Aim
This course aims to train participants to apply biodesign principles and AI-driven performance modelling to design and optimise climate-responsive buildings and sustainable urban systems—scaling from individual buildings to districts and cities.
Course Objectives
By the end of this course, participants will be able to:
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Understand biodesign approaches for climate-responsive, sustainable architecture
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Define and measure comfort, daylight, shading, energy, and emissions goals
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Work with building/urban datasets (occupancy, weather, indoor environmental quality indicators)
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Build basic AI/ML models for energy forecasting and performance analysis in Colab
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Explore smart building controls and AI-driven optimisation with PV/BIPV integration
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Deliver a capstone linking building → district → city scenarios for decision-making
Course Structure
Module 1: Biodesign and Climate-Responsive Architecture
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Biodesign essentials: biomimicry, green architecture, living façades, green roofs, vertical greenery
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Climate-adaptive and bio-based materials for façades and building envelopes
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Performance framing: thermal comfort, daylight, shading, and energy-use basics
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Hands-on: Map biodesign strategies to measurable performance objectives
Module 2: Data and AI Foundations for Building Performance
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Building energy & environment data: loads, occupancy, schedules, weather, IEQ indicators
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AI/ML for energy forecasting: time-series and ML models for predicting energy consumption
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Linking form/material choices to energy performance and model features
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Hands-on: Colab notebook for basic energy-consumption prediction using sample building data
Module 3: Smart Buildings, Automation, and Renewables
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Smart building systems & controls: HVAC, lighting, sensors, BMS/BAS; comfort vs efficiency trade-offs
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AI-driven control and optimisation: setpoints, schedules, operational strategies
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Rooftop PV & BIPV integration: demand + renewables + storage, peak shaving, emissions reduction
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Hands-on: Colab notebook to optimise a simple HVAC + lighting + rooftop PV scenario
Module 4: AI for Smart Urban Systems and Capstone
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Smart cities with AI: land-use, density, green/blue networks, resource flows
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City-scale indicators: aggregating building data to district level; mobility, EV charging, sustainability metrics
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Governance and policy: decision-support dashboards and scenario planning
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Hands-on Capstone: Multi-scale scenario model (building → district → city) in Colab, comparing business-as-usual vs AI + biodesign–optimised futures
Who Should Enrol?
This course is ideal for:
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Architecture, urban planning, and design students/professionals
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Civil, environmental, energy, and sustainability engineers
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Building performance and green building practitioners (HVAC, energy modelling, IEQ)
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Smart city, GIS, and urban systems professionals
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Data science/AI/ML learners interested in climate, buildings, and urban analytics
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Policy, governance, and sustainability stakeholders working on resilient city solutions









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