Zero Net Energy Buildings

About this course
"After teaching over 300 participants, I’m convinced self-paced, asynchronous online learning is the way to master and apply new skills and knowledge." —Marc Rosenbaum
This course is included in this bundle
Course outline
Welcome • 2 assignments
Orientation Materials
Module 1 • 15 assignments
What is a Zero Net Energy Building, Energy, Solar Energy
Participants will be able to:
- Describe Zero Net Energy distinctions and definitions and advances that support widespread implementation.
- Identify key superinsulated enclosure strategies of zero net energy buildings (ZNEB)
- Identify major systems and components appropriate to ZNEB
- Explain differing forms of energy, how much energy do typical ZNEBs use, and how to use PV Watts to calculate solar energy is incident on a building
Module 2 • 20 assignments
Methods of Heat Transfer & How They Occur in Buildings, How to Calculate a Building's Heat Loss, Moisture, Vapor Flow, Dewpoint
Participants will be able to:
- Explain the three principal methods of heat transfer
- Calculate the design heat loss of a building
- Describe the principal methods of moisture transport in buildings
- Describe the relationship between vapor diffusion, dewpoint, and mold
Module 3 • 12 assignments
How to Design, Specify & Test the Air Barrier, Thermal Bridges
Participants will be able to:
- Design and specify the air barrier
- Specify testing methods for air barriers
- Identify and calculate thermal bridging
- Calculate the true R value of an assembly
Module 4 • 19 assignments
Foundation Construction Strategies, Wall Construction Strategies, Roof Construction Strategies
Participants will be able to:
- Prioritize investment in ZNE envelope construction strategies
- Detail construction approaches for superinsulated foundations
- Detail construction approaches for superinsulated walls
- Detail construction approaches for superinsulated roofs
Module 5 • 19 assignments
Windows and Glazing, Solar Electric Systems, Lights and Appliances
Participants will be able to:
- Describe the performance of glazings and windows and the types of windows that are available
- Calculate the energy generated by solar electricity systems and the roof area required
- Specify efficient lighting
- Specify efficient appliances
Module 6 • 15 assignments
Heat Recovery Ventilation
Participants will be able to:
- Explain the need for heat recovery ventilation
- Describe the basics of how heat and energy recovery systems function
- Describe the range of heat recovery products are available
- Identify potential pitfalls in specifying ventilation systems
Module 7 • 15 assignments
Heating and Cooling
Participants will be able to:
- Describe preferred system approaches for heating and cooling
- Describe how ventilation system design affects heating and cooling
- Specify heating and cooling equipment available for low load homes
- Select the appropriate type of air source heat pumps
Module 8 • 12 assignments
DHW and Solar Thermal
Participants will be able to:
- Calculate domestic hot water (DHW) loads
- Identify strategies that minimize DHW energy
- Specify equipment available to make DHW efficiently
- Explain pros and cons of heat pump water heaters and solar thermal hot water
Module 9 • 7 assignments
Degree Days and Energy Modeling
Participants will be able to:
- Understand heating degree days conceptually
- Calculate heating degree days for a project location
- Develop an annual energy use model for the building
- Size the solar electric system to achieve zero net energy
Module 10 • 12 assignments
Bringing it All Together With Case Studies and Resources
- Evaluate the potential of a project to achieve zero net energy
- Design a schematic ZNEB project
- Study case studies of successful ZNE projects completed in the real world
- Locate further resources to improve practice moving forward
Conclusion • 3 assignments
Feedback and Additional Resources
Continuing Education Units
Approved for the following CEUs
- 15 PHIUS CPHC CEUs
Author

Marc Rosenbaum
Marc Rosenbaum, P.E. uses an integrated systems design approach to help people create buildings and communities which connect us to the natural world, and support both personal and planetary health. He brings this vision, experience and commitment to a collaborative design process, with the goal of profoundly understanding the interconnections between people, place, and...
Frequently asked questions
Full FAQHow does this course work?
How long do I have access to the materials?
Does this cover residential or commercial scale buildings?
The focus on the enclosure approaches and mechanical systems are for residences and small scale institutional.
There are several residential case studies of varying sizes, then one case study is a new 17,000 sf Living Building Challenge campus center, and another is a Deep Energy Retrofit of a 35,000 sf school.