Clark School Home UMD
ECE

ECE News Story

UMD and Mobile Comfort demonstrate robotic cooling machine at 2017 ARPA-E Technology Showcase

UMD and Mobile Comfort demonstrate robotic cooling machine at 2017 ARPA-E Technology Showcase

RoCo team at 2017 ARPA-E Tech Showcase
RoCo team at 2017 ARPA-E Tech Showcase

Engineers from the University of Maryland have partnered with Oak Ridge National Labs and CITY@UMD to create a robotic personal conditioning device (RoCo) which was selected for demonstration at the ARPAE Energy Summit this week. It is one of the world’s first personal air conditioning systems that requires no wires or ventilation while in use. The portable machine, developed as part of ARPA-E’s Delivering Local Thermal Amenities (DELTA) program, has a “smart” nozzle that can track user movements and direct a cool or warm air stream exactly where the user wants it.

The technology is being marketed and commercialized through a Maryland start-up company, Mobile Comfort, Inc, created in the summer of 2016. Todd Stave, CEO of Mobile Comfort, Inc said that RoCo’s value is that it effortlessly provides personalized local comfort, when and where it is needed, while increasing user productivity and saving energy. An exciting additional benefit is the ability to provide air conditioning in places where ventilation is impractical. Reinhard Radermacher, UMERC lead PI and director of the Center for Environmental Energy Engineering (CEEE) at the James A. Clark School of Engineering, says, “One of the unique advantages of the device is that RoCo does not reject waste heat while cooling, thus it does not negatively affect the comfort of neighbors or bystanders.”

The device operates for up to 4 hours at which point the unit needs to be recharged, notably at a time when the user is asleep or during off peak work hours. Stave indicated that he sees a prominent market for RoCo in senior care facilities, outdoor and recreational use, manufacturing plants, and older buildings where heating and cooling are difficult or have many different areas of temperature gradients.

A graphic rendering for smaller units has been drawn up. Currently the engineers are working to reduce the costs of the manufacturing in order to better market the machine. Stave indicated that the goal is to reduce the production cost to $150 per unit and estimates that approximately 100,000 could be sold annually world-wide. 

Related Articles:
University of Maryland Hosts 2016 Leidos Intern Symposium
Williams Nominated to Lead ARPA-E
University of Maryland Wins 2011 Solar Decathlon
Micro-ball bearing research featured in Micro Manufacturing magazine
UMERC/Nanocenter Team Named "Energy Frontier" Center
NanoCenter Improves Energy Storage Options

March 2, 2017


Prev   Next

Current Headlines

UMD Students Take Top Prize in National Deloitte Case Competition

Hafezi and Munday Promoted to Associate Professors with Tenure 

UAS Test Site Seeks Summer 2017 Interns

13th ECE Spring Internship and Career Fair Attracts 34 Employers

Rethinking Coastal Retreat

Liu Gives Plenary Keynote Speech at ICASSP 2017

Alumni Cup 2017

Alumnus Ravi Tandon receives NSF CAREER Award

News Resources

Return to Newsroom

Search News

Archived News

Events Resources

Events Calendar

Additional Resources

UM Newsdesk

Faculty Experts