15 Topics
10 Days
75 Sessions
Programme Overview
Training Description
Who Should Attend
This course is ideal for;
- Architects
- Building engineers
- Construction managers
- Renewable energy consultants
- Energy auditors
- Sustainability managers
- Building designers
- HVAC engineers
- Urban planners
- Project developers
- Real estate developers
- Government officials
- Individuals interested in sustainable building
Session Objectives
- Understand the principles of renewable energy and building integration and their role in sustainable construction.
- Implement techniques for designing and integrating Building Integrated PV (BIPV) systems.
- Understand the role of passive solar design in optimizing building energy performance.
- Implement techniques for utilizing energy-efficient building materials and technologies.
- Understand the principles of building envelope optimization and insulation.
- Implement techniques for conducting building energy modeling and simulation.
- Understand the role of HVAC systems in building energy efficiency.
- Implement techniques for conducting building energy audits and retrofits.
- Understand the principles of green building certifications and standards.
- Implement techniques for conducting technical and economic feasibility studies for building integration projects.
- Understand the legal and regulatory considerations related to sustainable building.
- Develop strategies for managing building integration projects and teams.
- Develop strategies for measuring and analyzing the effectiveness of building integration measures.
About the Course
Renewable Energy and Building Integration training equips professionals to design and implement energy-efficient building technologies, including Building Integrated PV (BIPV) and passive solar design. This course focuses on analyzing building energy performance, implementing sustainable design strategies, and understanding the impact of renewable energy integration on building efficiency. Participants will learn to develop BIPV systems, utilize passive solar techniques, and understand the intricacies of using energy-efficient materials and technologies. By mastering renewable energy and building integration, professionals can enhance their ability to create sustainable built environments, reduce building energy consumption, and contribute to a more environmentally responsible construction industry.
The increasing demand for net-zero energy buildings and the growing need for energy-efficient construction practices necessitate a comprehensive understanding of renewable energy integration and building design best practices. This course delves into the nuances of building envelope optimization, HVAC system efficiency, and energy modeling, empowering participants to develop and implement tailored building integration solutions. By integrating architectural expertise with renewable energy acumen, this program enables organizations to lead initiatives that maximize the potential of sustainable building design and drive long-term energy efficiency.
Curriculum & Topics
15 Topics | 75 Sessions
-
Workshop 1.1:
Overview of sustainable building design principles
-
Workshop 1.2:
Benefits and challenges of building integration
-
Workshop 1.3:
Key components and technologies
-
Workshop 1.4:
Role of renewable energy in building efficiency
-
Workshop 1.5:
Market trends and future outlook
-
Workshop 2.1:
BIPV system design and integration
-
Workshop 2.2:
PV module selection and performance
-
Workshop 2.3:
Electrical integration and grid connection
-
Workshop 2.4:
BIPV applications in roofs, facades, and windows
-
Workshop 2.5:
Architectural integration and aesthetics
-
Workshop 3.1:
Solar orientation and shading strategies
-
Workshop 3.2:
Thermal mass and heat storage
-
Workshop 3.3:
Natural ventilation and daylighting
-
Workshop 3.4:
Passive heating and cooling techniques
-
Workshop 3.5:
Bioclimatic design principles
-
Workshop 4.1:
High-performance insulation materials
-
Workshop 4.2:
Advanced glazing and window systems
-
Workshop 4.3:
Green building materials and certifications
-
Workshop 4.4:
Smart building technologies and automation
-
Workshop 4.5:
Water conservation and management
-
Workshop 5.1:
Air leakage control and sealing
-
Workshop 5.2:
Thermal bridging analysis and mitigation
-
Workshop 5.3:
Moisture management and condensation control
-
Workshop 5.4:
Building envelope performance testing
-
Workshop 5.5:
Durability and maintenance considerations
-
Workshop 6.1:
Building energy modeling software and tools
-
Workshop 6.2:
Energy performance analysis and optimization
-
Workshop 6.3:
Life cycle assessment (LCA) of building materials
-
Workshop 6.4:
Thermal comfort analysis
-
Workshop 6.5:
Daylighting simulations and analysis
-
Workshop 7.1:
High-efficiency HVAC systems and controls
-
Workshop 7.2:
Geothermal heat pumps and radiant heating/cooling
-
Workshop 7.3:
Natural ventilation and evaporative cooling
-
Workshop 7.4:
Demand-controlled ventilation
-
Workshop 7.5:
HVAC system commissioning and maintenance
-
Workshop 8.1:
Energy audit methodologies and procedures
-
Workshop 8.2:
Building performance assessment and benchmarking
-
Workshop 8.3:
Retrofit strategies and technologies
-
Workshop 8.4:
Energy savings calculations and analysis
-
Workshop 8.5:
Post-retrofit monitoring and verification
-
Workshop 9.1:
LEED, BREEAM, and other green building certifications
-
Workshop 9.2:
Net-zero energy building standards
-
Workshop 9.3:
Passive House standards
-
Workshop 9.4:
Building codes and regulations
-
Workshop 9.5:
Certification process and documentation
-
Workshop 10.1:
Project cost estimation and financial modeling
-
Workshop 10.2:
Return on investment (ROI) calculation
-
Workshop 10.3:
Payback period analysis
-
Workshop 10.4:
Life cycle cost analysis
-
Workshop 10.5:
Risk assessment and mitigation
-
Workshop 11.1:
Building codes and zoning regulations
-
Workshop 11.2:
Environmental regulations and permitting
-
Workshop 11.3:
Green building incentives and policies
-
Workshop 11.4:
Contractual agreements and warranties
-
Workshop 11.5:
Liability and insurance considerations
-
Workshop 12.1:
Project planning and execution
-
Workshop 12.2:
Stakeholder engagement and communication
-
Workshop 12.3:
Risk management and mitigation
-
Workshop 12.4:
Budgeting and cost control
-
Workshop 12.5:
Performance monitoring and evaluation
-
Workshop 13.1:
Key performance indicators (KPIs) for sustainable buildings
-
Workshop 13.2:
Energy savings and consumption reduction
-
Workshop 13.3:
Environmental impact assessment
-
Workshop 13.4:
Occupant comfort and satisfaction
-
Workshop 13.5:
Continuous improvement strategies
-
Workshop 14.1:
Smart facades and dynamic shading systems
-
Workshop 14.2:
Advanced building automation and control systems
-
Workshop 14.3:
Integration of energy storage and microgrids
-
Workshop 14.4:
Modular and prefabricated construction
-
Workshop 14.5:
3D printing and advanced materials
-
Workshop 15.1:
•Net-positive energy buildings and communities
-
Workshop 15.2:
Biophilic design and integration with nature
-
Workshop 15.3:
Circular economy and regenerative design
-
Workshop 15.4:
Digital twin technology for building management
-
Workshop 15.5:
The role of artificial intelligence in building performance optimization
