Demand Control Systems Deliver Efficiency in Commercial Hot Water Use

Event Date

2/6/2018 11:00:00 AM


Event Location

Live webinar, 11:00 am – 12:00 pm CST
 


Event Details

Commercial and hospitality buildings typically cycle between periods of very heavy hot water use and low to no hot water use. To ensure that hot water is immediately available at all times, building managers are often forced to override existing recirculation technology that was designed to control and reduce pumping and heating costs.

To address this challenge, researchers introduced and assessed the effectiveness of new demand control systems to reduce heating and pumping costs from hot water circulation in hospitality and commercial venues. The project team installed and monitored demand control systems at six sites, yielding notable electricity savings from both water heating and pumping with short payback periods at most sites. While monitoring, researchers encountered several issues that required troubleshooting in the field. The team leveraged their field experience to develop an approach to screen buildings and identify good fits for this technology.

CEE Senior Research Engineer Ben Schoenbauer will provide a technical overview of study findings, ranging from the performance of field installed systems to recommended approaches for building screening, non-energy benefits of the new systems, and specific recommendations for utility conservation improvement programs.

Who is this webinar for?

  • Utility program managers
  • Commercial building facility managers
  • Hotel owners
  • Multifamily building owners


Presenter

Ben_S_220.jpgBen Schoenbauer
Senior Research Engineer | Center for Energy and Environment
 
Ben Schoenbauer is a senior research engineer who has been with CEE since 2008. Ben conducts research on new and innovative technologies and ideas dealing with residential and commercial energy efficiency. Ben’s areas of focus include water heater performance, service water heating, and residential HVAC systems.

Ben has a master’s degree in mechanical engineering for the University of Minnesota and a bachelor’s degree in physics from St. John’s University.