Training course
Overview
Advanced Building
Technology is a comprehensive professional training course designed to
develop advanced technical and managerial capabilities in the planning, design
coordination, construction, performance optimization, commissioning, and
lifecycle management of modern buildings. The program examines sophisticated
building systems, advanced materials, high-performance envelopes, structural
and MEP integration, digital construction, smart building technologies,
sustainability, resilience, building diagnostics, and lifecycle asset
performance. Participants develop the ability to evaluate complex building
technology decisions using engineering principles, performance criteria,
standards, digital tools, and practical construction evidence.
Advanced Building Technology builds
upon fundamental construction knowledge and progresses toward advanced
approaches for managing technically complex buildings and high-performance
facilities. Participants examine advanced concrete, steel, timber, composite,
façade, roofing, waterproofing, insulation, glazing, and building envelope
technologies while addressing durability, thermal performance, moisture
control, fire performance, constructability, and lifecycle requirements.
Standards and frameworks including ISO 9001, ISO 14001, ISO 45001, ISO 31000,
relevant building codes, Eurocodes, ASTM standards, BIM methodologies,
energy-performance principles, and sustainable building frameworks are
integrated into practical technical decision-making.
The course provides advanced
coverage of building services and systems integration, including HVAC, electrical
distribution, plumbing, fire protection, vertical transportation, building
automation, renewable energy, smart sensors, Internet of Things technologies,
digital twins, and building analytics. Participants learn how to coordinate
multidisciplinary systems, evaluate performance problems, investigate defects,
optimize energy and resource use, and apply advanced commissioning and
verification procedures. Practical exercises, technical case studies,
diagnostic scenarios, BIM coordination activities, performance assessments, and
failure investigations provide opportunities to apply advanced concepts to
realistic building projects.
By the end of this 10-day Advanced
Building Technology training course, participants will be able to evaluate and
manage advanced building technologies throughout the complete asset lifecycle,
from design and construction through commissioning, operation, maintenance,
refurbishment, and optimization. The program develops advanced capabilities in
building performance, resilience, sustainability, digital integration,
technical risk, defect diagnosis, lifecycle economics, and emerging
construction technologies. Participants will apply structured engineering and
management methods to complex scenarios involving high-performance buildings,
smart facilities, energy optimization, building envelope failures, systems
integration, resilience, and long-term asset performance.
Course
Duration
10 Days (80 Hours)
Target
Participants
·
Senior Architects and Architectural
Technologists
·
Civil, Structural, Mechanical, and Electrical
Engineering Professionals
·
Building Technology Specialists and Construction
Professionals
·
Senior Construction Managers and Project
Managers
·
Building Services and MEP Engineers
·
Building Surveyors and Technical Inspectors
·
Quantity Surveyors and Cost Consultants involved
in advanced building projects
·
Facilities, Property, and Asset Management
Professionals
·
Building Performance, Energy, Sustainability,
and Environmental Professionals
·
BIM Managers, Digital Construction Specialists,
and Information Managers
·
Contractors, Developers, Consultants, and
Technical Project Leaders
·
Professionals responsible for advanced building
systems, performance, commissioning, or lifecycle management
Course
Objectives
By the end of the training, participants
will be able to:
·
Apply advanced building technology principles to
complex building projects and high-performance facilities
·
Evaluate advanced structural, architectural,
envelope, and building services technologies
·
Analyze advanced construction materials based on
structural performance, durability, sustainability, constructability, and
lifecycle requirements
·
Evaluate high-performance building envelopes,
façades, glazing, insulation, waterproofing, and moisture-control systems
·
Apply advanced building science principles to
thermal, moisture, air, energy, and occupant-performance issues
·
Integrate architectural, structural, MEP, fire
protection, automation, and specialist building systems
·
Apply relevant building codes, technical
standards, specifications, and performance-based requirements
·
Develop advanced quality assurance, inspection,
testing, and defect-prevention strategies
·
Apply advanced diagnostic and root cause
analysis techniques to building failures and performance problems
·
Evaluate advanced HVAC, electrical, plumbing,
fire protection, vertical transportation, and building automation systems
·
Apply BIM, 4D/5D methodologies, common data
environments, digital twins, and advanced information management
·
Evaluate smart building technologies, IoT
sensors, building analytics, automation, and AI-assisted performance
optimization
·
Develop advanced energy-efficiency, renewable
energy, water-efficiency, and sustainable building strategies
·
Apply resilience principles to buildings exposed
to climate, seismic, fire, flood, wind, and other environmental risks
·
Evaluate prefabrication, modular construction,
advanced manufacturing, robotics, and emerging building technologies
·
Apply lifecycle costing, total cost of
ownership, maintainability, reliability, and asset-performance principles
·
Develop advanced commissioning, functional
testing, systems integration, and performance verification strategies
·
Strengthen building operational readiness,
predictive maintenance, and continuous performance improvement
·
Evaluate advanced building refurbishment,
retrofit, preservation, and modernization strategies
·
Demonstrate integrated advanced Building
Technology capability through practical exercises, case studies, simulations,
and an advanced capstone
Course
Content
Day
1: Advanced Building Technology Principles, Building Science, and Integrated
Systems
Module 1: Advanced Building Technology
Principles, Building Science, and Integrated Systems
1. Advanced
Building Technology Concepts and the Modern Building Lifecycle
2. Building
Systems Thinking, Interdependencies, and Performance-Based Design
3. Advanced
Building Science: Heat, Air, Moisture, and Energy Transfer
4. Performance
Criteria, Building Codes, Standards, and Technical Specifications
5. Advanced
Architectural and Engineering Documentation
6. Multidisciplinary
Design Coordination and Constructability Analysis
7. Building
Systems Integration, Interfaces, and Technical Risk
8. Advanced
Construction Methods, Sequencing, and Quality Planning
9. Building
Performance Metrics, Technical KPIs, and Performance Benchmarking
10. Advanced
Case Study: Developing an Integrated Technology Strategy for a High-Performance
Building
Day
2: Advanced Structural Systems, Materials, Foundations, and Construction
Technologies
Module 2: Advanced Structural Systems,
Materials, Foundations, and Construction Technologies
1. Advanced
Structural Building Systems and Load-Path Considerations
2. Advanced
Foundation Technologies and Ground-Structure Interaction
3. High-Performance
Reinforced Concrete Systems and Durability Design
4. Advanced
Structural Steel, Connections, Fire Protection, and Corrosion Control
5. Engineered
Timber, Composite Structures, and Hybrid Structural Systems
6. Advanced
Concrete Technologies, High-Performance Concrete, and Special Mixes
7. Advanced
Building Materials, Composites, and Engineered Products
8. Prefabrication,
Modular Construction, and Off-Site Manufacturing
9. Advanced
Construction Methods, Temporary Works, Tolerances, and Buildability
10. Advanced
Structural Technology Exercise: Selecting and Evaluating an Integrated
Structural System for a Complex Building
Day
3: High-Performance Building Envelopes, Façades, Roofing, and Moisture
Management
Module 3: High-Performance Building
Envelopes, Façades, Roofing, and Moisture Management
1. Advanced
Building Envelope Design and Performance Principles
2. High-Performance
Curtain Walls, Unitized Façades, and Cladding Systems
3. Advanced
Glazing, Solar Control, Shading, and Daylight Technologies
4. Thermal
Bridges, Heat Transfer, Air Leakage, and Envelope Energy Performance
5. Advanced
Insulation, Vapour Control, Air Barriers, and Hygrothermal Design
6. Advanced
Waterproofing, Roofing Systems, and Drainage Technologies
7. Moisture
Transport, Condensation, Mold Risk, and Building Envelope Diagnostics
8. Façade
Materials, Durability, Corrosion, Movement, and Joint Design
9. Building
Envelope Testing, Air Tightness, Water Penetration, and Performance
Verification
10. Advanced
Diagnostic Case Study: Investigating a High-Performance Building Envelope
Failure
Day
4: Advanced Building Services, HVAC, Electrical, Plumbing, Fire Protection, and
Controls
Module 4: Advanced Building Services,
HVAC, Electrical, Plumbing, Fire Protection, and Controls
1. Advanced
MEP Systems Integration and Building Services Strategy
2. High-Performance
HVAC Systems, Controls, and Energy Optimization
3. Advanced
Indoor Air Quality, Ventilation, Thermal Comfort, and Environmental Control
4. Advanced
Electrical Distribution, Power Quality, Backup Power, and Resilience
5. Smart
Lighting, Controls, Energy Monitoring, and Demand Management
6. Advanced
Plumbing, Water Treatment, Drainage, and Water Efficiency
7. Advanced
Fire Detection, Suppression, Smoke Control, and Life Safety Systems
8. Lifts,
Escalators, Building Access, Security, and Vertical Transportation
9. Building
Automation Systems, Controls Integration, and Systems Interoperability
10. Advanced
MEP Coordination Exercise: Resolving Multidisciplinary Building Services
Conflicts
Day
5: Advanced Quality, Diagnostics, Defect Investigation, Safety, and Risk
Module 5: Advanced Quality, Diagnostics,
Defect Investigation, Safety, and Risk
1. Advanced
Building Quality Management and ISO 9001 Integration
2. Risk-Based
Inspection, Testing, Verification, and Quality Assurance
3. Advanced
Building Defect Classification, Investigation, and Evidence Collection
4. Non-Destructive
Testing and Advanced Building Diagnostic Techniques
5. Root
Cause Analysis Using Five Whys, Fishbone, Pareto, FMEA, and Fault-Tree Thinking
6. Structural,
Envelope, MEP, and Materials Failure Investigation
7. Advanced
Construction Health and Safety Management and ISO 45001 Principles
8. Technical
Risk Management and ISO 31000 Application
9. Corrective
Action, Preventive Action, Lessons Learned, and Failure Prevention
10. Advanced
Investigation Simulation: Diagnosing a Complex Multi-System Building Failure
Day
6: Advanced Energy Efficiency, Sustainability, Resilience, and Environmental
Performance
Module 6: Advanced Energy Efficiency,
Sustainability, Resilience, and Environmental Performance
1. Advanced
Sustainable Building Design and Whole-Building Performance
2. Energy
Modeling, Building Energy Performance, and Optimization
3. Passive
Design, Thermal Mass, Solar Control, Daylighting, and Natural Ventilation
4. High-Efficiency
HVAC, Lighting, Controls, and Energy Management
5. Renewable
Energy Integration, Solar Systems, Storage, and Distributed Energy
6. Advanced
Water Efficiency, Rainwater Harvesting, Reuse, and Water Management
7. Low-Carbon
Materials, Circular Construction, Waste Reduction, and Resource Efficiency
8. Climate
Resilience, Extreme Weather, Flood, Wind, Fire, and Seismic Considerations
9. Environmental
Performance Monitoring and Sustainable Building Certification Frameworks
10. Advanced
Sustainability Exercise: Developing a Net-Efficient, Resilient, and Resource-Optimized
Building Strategy
Day
7: BIM, Digital Twins, Smart Buildings, Data Analytics, and AI
Module 7: BIM, Digital Twins, Smart
Buildings, Data Analytics, and AI
1. Advanced
BIM Methodologies and Digital Information Management
2. BIM-Based
Multidisciplinary Coordination and Advanced Clash Detection
3. 4D
BIM for Construction Planning, Sequencing, and Progress Visualization
4. 5D
BIM for Quantity Management, Cost Control, and Lifecycle Planning
5. Common
Data Environments, Information Standards, and Model Governance
6. Smart
Buildings, IoT Sensors, Connected Systems, and Real-Time Monitoring
7. Digital
Twins for Building Operations, Maintenance, and Asset Performance
8. Building
Data Analytics, Predictive Performance, and Anomaly Detection
9. Artificial
Intelligence, Machine Learning, Automation, and Advanced Building Optimization
10. Digital
Building Simulation: Developing an Integrated BIM, Smart Building, and Digital
Twin Strategy
Day
8: Advanced Building Automation, Maintenance, Asset Performance, and Lifecycle
Optimization
Module 8: Advanced Building Automation,
Maintenance, Asset Performance, and Lifecycle Optimization
1. Advanced
Building Management Systems and Integrated Controls
2. Intelligent
Fault Detection, Diagnostics, and Automated Performance Monitoring
3. Predictive
Maintenance, Condition Monitoring, and Reliability-Centered Asset Management
4. Building
Equipment Criticality, Reliability, Availability, and Maintainability
5. Lifecycle
Costing, Total Cost of Ownership, and Investment Optimization
6. Asset
Information Management, Digital Asset Registers, and Maintenance Data
7. Building
Retrofit, Refurbishment, Modernization, and Adaptive Reuse
8. Performance
Contracting, Energy Optimization, and Operational Improvement
9. Advanced
Asset Performance KPIs, Benchmarking, and Continuous Improvement
10. Advanced
Asset Management Case Study: Optimizing the Lifecycle Performance of a Complex
Commercial Building
Day
9: Emerging Building Technologies, Innovation, Resilience, and Future
Construction
Module 9: Emerging Building Technologies, Innovation,
Resilience, and Future Construction
1. Emerging
Building Technologies and the Future of Construction
2. Advanced
Modular, Prefabricated, and Industrialized Building Systems
3. Robotics,
Automation, 3D Printing, and Advanced Construction Manufacturing
4. Advanced
Materials, Nanotechnology, Smart Materials, and Responsive Building Components
5. Intelligent
Façades, Adaptive Systems, and Responsive Environmental Technologies
6. Artificial
Intelligence and Data-Driven Building Design and Operations
7. Smart
Infrastructure, Connected Buildings, and Integrated Urban Systems
8. Advanced
Resilience, Climate Adaptation, and Disaster-Ready Building Strategies
9. Technology
Investment, Innovation Governance, and Technology Lifecycle Management
10. Future
Building Strategy Exercise: Developing a Technology Roadmap for a Smart,
Sustainable, and Resilient Building Portfolio
Day
10: Advanced Commissioning, Performance Verification, Handover, and Integrated
Capstone
Module 10: Advanced Commissioning,
Performance Verification, Handover, and Integrated Capstone
1. Advanced
Commissioning Strategy and Building Readiness Management
2. Pre-Commissioning,
Functional Testing, Balancing, and Systems Verification
3. Integrated
Systems Testing and Building Automation Commissioning
4. Building
Envelope Commissioning and Performance Verification
5. Energy
Performance Verification, Measurement, and Optimization
6. Operational
Readiness, Facility Management Integration, and Knowledge Transfer
7. Advanced
Handover Documentation, Asset Information, O&M Systems, and Digital Records
8. Post-Occupancy
Evaluation, Performance Monitoring, and Continuous Optimization
9. Advanced
Lifecycle Building Strategy, Technology Upgrades, and Future-Proofing
10. Advanced
Building Technology Capstone: Evaluating, Integrating, Commissioning, and
Optimizing a High-Performance Smart Building Across Its Complete Lifecycle


