This project collects, standardizes and promotes knowledge about Building Automation. It’s intended as a self-learning educational resource for the industry professionals (entering or experienced), as well as a guideline for colleges and universities with Buildings Automation programs, either stand-alone or as part of other disciplines, such as HVAC engineering.
This page is a map of all the learning resources in this project.
- Completed high school education is highly recommended.
- However, the breadth of competencies required is pretty wide and people in Building Automation come from many walks of life. The most common ones are electronics, software, HVAC, and security.
This project was created to:
- Define the knowledge areas required by Building Automation professionals.
- Define the level of competency in each knowledge area required by different Building Automation professionals
- Using the above, create industry recognized syllabuses for 2 year and 4 year Building Automation Professional programs, as well as programs for complementing other professions, such as HVAC Design Engineering, Building Management, Electronic Security Professionals, and Facility Energy Management.
- Gather references to educational resources so such programs can be easily and consistently implemented by colleges and universities.
- Standardize the building automation industry terminology and common knowledge needed for unambiguous interpretation and consistent implementation of Automation strategies. This would also allow for industry-wide cooperation projects.
- Be a self-learning resource for people from other industries who want to move into building automation.
- Be a structured and up-to-date repository of knowledge for building automation professionals.
As in any other industry, Building Automation professionals, by their function and experience require different depth in each knowledge area. For instance, they can be technicians or engineers; and in each they can be apprentices, regulars, seniors or supervisors; and they can be focused in design, programming, installation, field work, or service.
Items in red text mean the resource hasn't been created yet.
Items in italic mean the resource is not completed yet.
Inputs & outputs Variables, parameters System dynamics Linear systems First order systems Second order systems Controllers Closed loop PID Controllers Stability Open loop controllers Direct Digital Controls Numerical models Non-linear systems Singularities Delays Limit cycles Backlash Static friction
Heat transfer and transport Evaporation Dehumidification Comfort conditions Fluid dynamics Refrigerants
HVAC Air Handlers VAVs Fan-Coils Heat Pumps Cooling Towers Chiller Plants Boiler Plants Hydronics Geothermal Loops Potable Water Fire Suppression Irrigation Escalators and Elevators
Electric signal (vs. power) Polarity Sensors Transducers Actuators Grounding Power Electronics Variable Speed Drives
Structuring Subroutines Code reusability and portability Code comments Built-in troubleshooting Line vs. block diagram vs. parametric Distributed vs. centralized programming Libraries Robustness Redundancies Fallback routines Bandwidth use Communication delays Built-in commissioning routines Versioning and updates
Protocols and standards Network topologies Baud rate, configurations Layers Gateways Routers Working with IT staff Language and priorities Negotiating with them, engage them Digital Safety Hackers mitigation Firewalls Encryption Troubleshooting tools
Buildings as holistic systems Interactions and coordination Utility Demand Response Response to current and forecast occupancy and load Response to events in other systems Security and life safety considerations Integration technology and protocols Monitored and Controlled Systems HVAC Lighting Fire Detection and Suppression Access Controls CCTV Elevators and Escalators Irrigation, pool & spa
Identifying user types From data to information to knowledge to action Baselines Meaningful units of measure Intuitive navigation Information density Color schemes On-screen help
Codes and standards ASHRAE 90.1 USGBC LEED California Code 24 Performance monitoring Performance predictive controls Occupants behavior Design point vs. part load Heat transfer vs. heat generation/rejection Variable speed Energy storage Renewables Setpoints adjustments
Work breakdown Time & Cost management Scope management Avoiding scope creep Negotiation What controls professionals need to push for Conflict Handling Influencing from a low authority position