
Net-Zero Architecture & Decarbonisation Course
Master the full spectrum of net-zero building design, from carbon accounting and high-performance envelopes to renewable energy integration and deep energy retrofits. This course equips architects, engineers, and sustainability professionals with the technical knowledge and practical tools to decarbonise both new construction and existing buildings. If reducing the built environment's carbon footprint is your professional goal, this is where you start.
What you will learn:
Gain a solid foundation in building decarbonisation, beginning with climate science, carbon accounting, and global regulations. Learn to analyse energy loads, conduct audits, and use energy modelling to spot performance gaps. The course covers envelope design, heat‑pump systems, electrification, and on‑site renewable integration. You’ll also learn embodied carbon assessment, life‑cycle analysis, and low‑carbon material selection. Retrofit strategies, decarbonisation roadmaps, and green financing prepare you for existing building stock. Finally, explore net‑zero certifications, integrated design workflows, and digital tools for carbon performance tracking throughout a project’s life cycle.
How you study in practice Net-Zero Architecture & Decarbonisation Course
How you practise Net-Zero Architecture & Decarbonisation Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your company and its specific needs.
Course content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Building Decarbonisation
Foundations of Building Decarbonisation
Lesson 1 • Carbon Accounting Principles
Introduces Scope 1, 2, and 3 emissions accounting applied to buildings. Provides the measurement foundation for all decarbonisation strategies.
Lesson 2 • Climate Science and the Built Environment
Covers greenhouse gas mechanisms and the building sector's share of global emissions. Grounds all subsequent design decisions in measurable climate impact.
Lesson 3 • Net-Zero Definitions and Targets
Distinguishes net-zero, carbon-neutral, and zero-carbon terminology. Aligns students with industry standards used throughout the course.
Lesson 4 • Regulatory and Policy Landscape
Maps building energy codes, disclosure mandates, and performance standards globally. Enables students to navigate compliance requirements in practice.
Chapter 2HideHide detailsSee detailsBuilding Energy Performance Fundamentals
Building Energy Performance Fundamentals
Lesson 1 • Heat Transfer and Thermal Dynamics
Explains conduction, convection, and radiation in building envelopes. Connects thermal physics to envelope design decisions covered in later chapters.
Lesson 2 • Energy Modelling Basics
Introduces whole-building simulation inputs, outputs, and validation. Provides the analytical toolkit used in envelope and systems design chapters.
Lesson 3 • Energy Performance Metrics
Defines EUI, energy intensity, and carbon intensity benchmarks. Equips students to set measurable performance targets for projects.
Lesson 4 • Building Energy Loads
Breaks down heating, cooling, lighting, and plug loads by building type. Establishes load profiles as the basis for system sizing and efficiency targeting.
Lesson 5 • Energy Auditing Methods
Covers walkthrough, diagnostic, and investment-grade audit procedures. Prepares students to identify and quantify energy waste in existing buildings.
Chapter 3HideHide detailsSee detailsHigh-Performance Building Envelope Design
High-Performance Building Envelope Design
Lesson 1 • Envelope Performance Verification
Covers commissioning, field testing, and post-occupancy envelope assessment. Ensures specified performance is achieved in constructed buildings.
Lesson 2 • Airtightness and Vapour Control
Details air barrier systems, vapour retarder placement, and testing protocols. Prevents moisture damage and infiltration losses in high-performance assemblies.
Lesson 3 • High-Performance Glazing and Windows
Covers U-factor, solar heat gain coefficient, and triple-glazing systems. Connects window selection to heating, cooling, and daylighting load outcomes.
Lesson 4 • Insulation Systems and Thermal Bridging
Compares insulation materials, R-values, and continuous insulation strategies. Addresses thermal bridging as a primary source of envelope performance loss.
Lesson 5 • Passive Solar and Shading Design
Applies solar geometry to optimise passive heating, cooling, and daylighting. Reduces mechanical system loads through climate-responsive envelope configuration.
Chapter 4HideHide detailsSee detailsLow-Carbon Mechanical and Electrical Systems
Low-Carbon Mechanical and Electrical Systems
Lesson 1 • Ventilation and Indoor Air Quality
Covers demand-controlled ventilation, heat recovery, and filtration in tight buildings. Balances energy efficiency with occupant health requirements.
Lesson 2 • Efficient Lighting and Controls
Addresses LED technology, lighting power density targets, and occupancy-based controls. Reduces electrical loads as a prerequisite for right-sized renewable systems.
Lesson 3 • Building Electrification Strategy
Explains the rationale for replacing fossil fuel systems with electric alternatives. Frames electrification as the primary decarbonisation pathway for building operations.
Lesson 4 • Heat Pump Systems
Details air-source, ground-source, and water-source heat pump operation and sizing. Connects coefficient of performance to carbon and energy outcomes.
Lesson 5 • Building Automation and Smart Controls
Introduces BAS architecture, fault detection, and demand response capabilities. Enables continuous optimisation of energy systems after occupancy.
Chapter 5HideHide detailsSee detailsOn-Site Renewable Energy Integration
On-Site Renewable Energy Integration
Lesson 1 • Building-Integrated Photovoltaics
Covers BIPV products including solar roofing, facades, and glazing systems. Integrates generation into the architectural envelope without redundant surface area.
Lesson 2 • Renewable Energy Monitoring and Verification
Covers metering, performance ratio tracking, and energy balance verification. Confirms that renewable generation meets net-zero targets over time.
Lesson 3 • Battery Storage and Grid Interaction
Explains battery chemistry, sizing, and grid export and import strategies. Enables buildings to maximise self-consumption and participate in grid services.
Lesson 4 • Solar Photovoltaic System Design
Addresses PV panel selection, array sizing, shading analysis, and inverter types. Connects generation capacity to annual energy demand offset calculations.
Lesson 5 • Other On-Site Renewable Sources
Surveys small wind, geothermal, and solar thermal as supplementary generation. Broadens the renewable toolkit beyond PV for diverse site conditions.
Chapter 6HideHide detailsSee detailsEmbodied Carbon and Material Selection
Embodied Carbon and Material Selection
Lesson 1 • Whole-Life Carbon Budgeting
Combines operational and embodied carbon into a unified project carbon budget. Enables trade-off decisions between envelope, structure, and systems.
Lesson 2 • Circular Economy and Material Reuse
Applies circular economy principles to reduce material extraction and waste. Extends embodied carbon strategy to end-of-life and reuse scenarios.
Lesson 3 • Life Cycle Assessment Methodology
Explains LCA stages A1–D, functional units, and system boundaries for buildings. Provides the analytical framework for all embodied carbon calculations.
Lesson 4 • Low-Carbon Structural Materials
Compares embodied carbon in concrete, steel, mass timber, and alternatives. Guides structural material selection to achieve whole-life carbon targets.
Lesson 5 • Environmental Product Declarations
Covers EPD structure, global warming potential data, and procurement use. Enables material comparison using verified third-party carbon data.
Chapter 7HideHide detailsSee detailsNet-Zero Design Integration and Certification
Net-Zero Design Integration and Certification
Lesson 1 • Carbon Offsetting and RECs
Explains the role, limitations, and procurement of offsets and renewable energy certificates. Clarifies when offsets are appropriate versus direct emission reductions.
Lesson 2 • Highest-impact decarbonisation opportunity
Structures the collaborative, iterative design workflow required for net-zero outcomes. Positions early-stage decisions as the highest-leverage decarbonisation opportunity.
Lesson 3 • Net-Zero Energy and Carbon Certifications
Compares LEED Zero, ILFI Zero Carbon, and equivalent certification frameworks. Guides selection of the appropriate standard for project type and goals.
Lesson 4 • Commissioning for Net-Zero Performance
Covers enhanced commissioning scope, functional testing, and post-occupancy monitoring. Closes the gap between design intent and actual building performance.
Lesson 5 • Passive House and Ultra-Low Energy Standards
Covers Passive House criteria, PHPP modelling, and certification pathways. Provides a rigorous performance framework applicable to any climate zone.
Chapter 8HideHide detailsSee detailsDecarbonising Existing Buildings
Decarbonising Existing Buildings
Lesson 1 • Decarbonisation Roadmap Development
Structures a multi-year, phased carbon reduction plan aligned with capital cycles. Enables building owners to commit to credible net-zero transition timelines.
Lesson 2 • Deep Energy Retrofit Strategies
Details envelope upgrades, system replacements, and sequencing for deep retrofits. Targets 50–80% energy reduction as a pathway to net-zero in existing stock.
Lesson 3 • Retrofit Assessment and Prioritisation
Covers building condition surveys, carbon baseline assessment, and measure prioritisation. Establishes the starting point for any existing building decarbonisation plan.
Lesson 4 • Retrofit Financing and Business Case
Covers energy savings calculations, payback analysis, and green financing instruments. Translates technical measures into investment decisions for building owners.
Lesson 5 • Historic and Heritage Building Constraints
Addresses preservation requirements that limit standard retrofit approaches. Develops compatible low-carbon solutions for protected building fabric.
Your valid completion certificate
This course is for you:
Architect: ready to lead net-zero projects from concept to certification.
Mechanical engineer: seeking to replace fossil fuel systems with low-carbon alternatives.
Sustainability consultant: wanting a rigorous technical foundation to serve building clients.
Facilities manager: responsible for cutting carbon across an existing building portfolio.
Urban planner: integrating building decarbonisation into neighbourhood-scale climate strategies.
Career changer: moving from environmental policy into hands-on building performance work.
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