Introduction:

The built environment is a major contributor to global energy consumption and greenhouse gas emissions, making energy analysis essential in designing sustainable buildings and infrastructures. This 5-day course provides participants with the tools and knowledge to conduct energy analysis in buildings, focusing on energy efficiency, renewable energy integration, and sustainable building design practices. Through a blend of theory, practical case studies, and software applications, participants will gain a deep understanding of how to optimize energy use in the built environment and contribute to achieving sustainability goals.

Objectives:

By the end of this course, participants will:

1. Understand the principles of energy analysis in the built environment.
2. Learn how to assess energy consumption and identify efficiency improvements in buildings.
3. Be familiar with energy modeling software and its application to real-world scenarios.
4. Understand the role of renewable energy technologies in buildings and how to integrate them into energy models.
5. Learn about building energy codes, standards, and certification systems (e.g., LEED, BREEAM).
6. Develop the ability to analyze and propose solutions for optimizing building energy performance.
7. Gain knowledge of current trends and future directions in energy-efficient building design.

Who Should Attend:

This course is ideal for professionals in the building and construction industry involved in energy management, sustainability, and building design, including:

• Architects and Designers
• Building Engineers (Mechanical, Electrical, Civil)
• Energy Consultants and Managers
• Facility Managers and Sustainability Experts
• Project Managers and Developers
• Students and Aspiring Professionals in Energy and Sustainability Fields

Course Outline:

Day 1: Introduction to Energy Analysis and the Built Environment

• Session 1: Overview of Energy Use in the Built Environment
  • The Role of Buildings in Global Energy Consumption and Carbon Emissions
  • Energy Use Patterns: Residential, Commercial, and Industrial Buildings
  • The Need for Energy Analysis: Benefits for Cost Savings, Sustainability, and Regulations
• Session 2: Energy Efficiency and Sustainability Principles
  • Key Concepts in Energy Efficiency: Insulation, Heat Recovery, HVAC Systems, and Lighting
  • Principles of Sustainable Design: Passive and Active Systems, Green Building Certifications
  • Overview of Global Energy Standards and Regulations: ISO 50001, ASHRAE Standards, and Energy Codes
• Session 3: Energy Analysis Process and Tools
  • Steps in Conducting Energy Analysis: Data Collection, Simulation, Interpretation, and Optimization
  • Introduction to Energy Modeling and Simulation Software (e.g., EnergyPlus, TRNSYS, IES VE)
  • Overview of Energy Audits and Baseline Energy Performance Metrics
• Activity: Group Discussion – Analyzing Energy Consumption in Different Building Types

Day 2: Energy Modeling and Simulation Techniques

• Session 1: Introduction to Energy Modeling Software
  • Overview of Key Energy Simulation Tools: Features, Advantages, and Limitations
  • Input Data for Energy Models: Building Geometry, Materials, Occupancy, HVAC Systems, and Climate
  • Building Performance Simulation: Thermal Loads, Lighting, and HVAC Systems
• Session 2: Creating Energy Models for Building Design
  • Step-by-Step Guide to Modeling Energy Consumption in Residential and Commercial Buildings
  • Simulating Heating, Cooling, and Lighting Loads
  • Assessing the Impact of Building Envelope, Window Design, and Insulation
• Session 3: Energy Simulation Outputs and Interpretation
  • Understanding Energy Consumption Profiles and Demand Curves
  • Key Performance Indicators (KPIs) for Energy Use: EUI (Energy Use Intensity), HVAC Performance, and Energy Cost
  • Analyzing Results to Propose Energy Efficiency Improvements
• Activity: Practical Exercise – Creating an Energy Model for a Sample Building Using Simulation Software

Day 3: Energy Efficiency Measures and Optimization

• Session 1: Building Envelope and Energy Efficiency
  • Thermal Insulation: Materials, R-values, and Heat Transfer
  • Window Design: Glazing, Solar Heat Gain, and Daylighting Strategies
  • Air Tightness, Thermal Bridges, and their Impact on Energy Use
• Session 2: Energy Efficient HVAC Systems
  • Heating, Ventilation, and Air Conditioning: System Types, Efficiency, and Sizing
  • Heat Recovery Systems: HRV, ERV, and Ground Source Heat Pumps
  • Zoning and Control Strategies for Optimal HVAC Performance
• Session 3: Lighting and Electrical Systems Efficiency
  • Energy-Efficient Lighting: LED, CFL, and Daylight Harvesting
  • Smart Controls and Lighting Systems
  • Electrical Systems Optimization: Appliances, Energy-Consuming Devices, and Efficiency Technologies
• Activity: Workshop – Identifying and Implementing Energy Efficiency Measures in a Building Design

Day 4: Renewable Energy Integration and Building Performance

• Session 1: Introduction to Renewable Energy Systems for Buildings
  • Solar Power: Photovoltaic Systems, Solar Thermal Systems, and Integration into Building Design
  • Wind Energy: Small-Scale Wind Turbines for Buildings
  • Geothermal Energy: Ground-Source Heat Pumps and Their Use in Buildings
  • Biomass and Other Renewable Energy Technologies
• Session 2: Assessing Renewable Energy Potential in Buildings
  • Energy Modeling for Renewable Integration: Site Location, Climate, and Energy Generation Potential
  • Sizing Renewable Energy Systems: Matching Energy Demand with Supply
  • Financial Considerations: Costs, Incentives, and Payback Periods for Renewable Energy Systems
• Session 3: Hybrid Energy Systems and Off-Grid Solutions
  • Combining Renewable Energy with Conventional Systems: Hybrid Heating, Cooling, and Power Systems
  • Off-Grid Energy Solutions: Microgrids and Smart Grid Integration
  • Case Studies: Successful Integration of Renewable Energy in Building Projects
• Activity: Group Project – Designing a Hybrid Energy System for a Commercial Building

Day 5: Energy Codes, Standards, and Future Trends

• Session 1: Building Energy Codes and Certifications
  • Overview of International Energy Standards: LEED, BREEAM, WELL Building Standard
  • Energy Code Compliance: ASHRAE 90.1, IECC, National Energy Codes
  • Energy Certifications: Zero Energy Buildings, Net-Zero, and Passive House
• Session 2: Advanced Topics in Building Energy Analysis
  • Building Performance Metrics and Post-Occupancy Evaluations
  • Smart Building Technologies: IoT, Building Automation Systems, and Energy Monitoring
  • Demand Response Strategies and Grid Interaction
• Session 3: Future Trends in Energy Efficiency and Sustainability
  • Smart Cities and the Future of Energy-Optimized Buildings
  • Emerging Technologies in Energy Storage, Artificial Intelligence, and Machine Learning for Energy Efficiency
  • Policy and Market Drivers for Energy Efficiency in Buildings
• Activity: Group Brainstorming – Envisioning the Future of Energy-Efficient Building Design and Smart Technologies

Course Delivery:

• Interactive Lectures: In-depth presentations covering energy efficiency, renewable integration, and energy modeling.
• Hands-on Software Training: Practical sessions on using energy modeling software to simulate building energy consumption.
• Case Studies: Real-world examples of energy analysis and energy-efficient building designs.
• Workshops and Group Projects: Collaborative sessions that simulate real-world challenges in energy management and building performance.
• Site Visits (Optional): If possible, visits to buildings or facilities that demonstrate energy-efficient practices or renewable energy installations.