Micro-Environmental Control System



Program:
DELTA
Award:
$3,449,963
Location:
Syracuse,
New York
Status:
ACTIVE
Project Term:
05/01/2015 - 10/31/2021

Critical Need:

Heating, Ventilation, and Air Conditioning (HVAC) account for 13% of energy consumed in the U.S. and about 40% of the energy used in a typical U.S. residence, making it the largest energy expense for most homes. Even though more energy-efficient HVAC technologies are being adopted in both the commercial and residential sectors, these technologies focus on efficiently heating or cooling large areas and dealing with how the building’s net occupancy changes during a day, a week and across seasons. Building operators have to tightly manage temperature for an average occupancy comfort level; but the occupants only occupy a small fraction of the building’s interior. There is a critical need for technologies that create localization of thermal management to relax the temperature settings in buildings, reduce the load on HVAC systems and enhance occupant comfort. This is achieved by tailoring the thermal environment around the individual, thus saving energy by not over-heating or over-cooling areas within the building where the occupants do not reside.

Project Innovation + Advantages:

Syracuse University will develop a near-range micro-environmental control system transforming the way office buildings are thermally conditioned to improve occupant comfort. The system leverages a high-performance micro-scroll compressor coupled to a phase-change material, which is a substance with a high latent heat of fusion and the capability to store and release large amounts of heat at a constant temperature. This material will store the cooling produced by the compression system at night, releasing it as a cool breeze of air to make occupants more comfortable during the day. When heating is needed, the system will operate as an efficient heat pump, drawing heat from the phase-change material and delivering warm air to the occupant. The micro-scroll compressor is smaller than any of its type, minimizing the amount of power needed. The use of this micro-environmental control system, along with expanding the set-point range could save more than 15% of the energy used for heating and cooling, while maintaining occupant comfort.

Potential Impact:

If successful, DELTA technology could increase energy efficiency, reduce emissions produced by powering traditional HVAC systems, and enable more sustainable heating and cooling architectures for energy-efficient building design.

Security:

The innovations developed under the DELTA program have the potential to increase energy efficiency, improve overall building performance, and reduce HVAC energy consumption by at least 15%.

Environment:

The heating and cooling of buildings generates about 13% of the U.S. domestic greenhouse gas emissions. Through improved utilization of energy produced by fossil fuels with full adoption DELTA can reduce these emission by 2%.

Economy:

DELTA program innovations can help U.S. businesses eventually reduce reliance on tightly controlled building environments, thus enabling radical and sustainable architecture in next generation energy efficient building designs.

Contact

ARPA-E Program Director:
Dr. Marina Sofos
Project Contact:
Dr. Ed Bogucz
Press and General Inquiries Email:
ARPA-E-Comms@hq.doe.gov
Project Contact Email:
bogucz@syr.edu

Partners

United Technologies Research Center
Cornell University
Bush Technical, LLC
Air Innovations

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Release Date:
12/16/2014