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Articles 1 - 3 of 3
Full-Text Articles in Heat Transfer, Combustion
In-Situ Thermal Measurement Of Polymers, Carson Powers, Jungkyu Park, Dal Hyung Kim, Fahim Dorsey, Peter Bearden
In-Situ Thermal Measurement Of Polymers, Carson Powers, Jungkyu Park, Dal Hyung Kim, Fahim Dorsey, Peter Bearden
Symposium of Student Scholars
In this research, we conducted a detailed experimental
investigation into how strain affects the thermal conductivity of
Ecoflex elastomer, utilizing a newly developed method for
measuring thermal conductivity under mechanical strain for the
first time. In situ thermal conductivity measurement apparatus
was developed by combining the KLA T150 nanoscale tensile tester
and a custom-fabricated thermal measurement sensor. The
development of an experimental method for measuring the thermal
conductivity of nanomaterials under mechanical testing
simultaneously will contribute to the development of novel
materials for flexible electronics by helping us to better
understand the strain effect on their thermal performance.
Interestingly, the …
Active Membrane Energy Exchanger For Air Cooling And Dehumidification, Songhao Wu, Andrew Fix, David M. Warsinger, James E. Braun
Active Membrane Energy Exchanger For Air Cooling And Dehumidification, Songhao Wu, Andrew Fix, David M. Warsinger, James E. Braun
Discovery Undergraduate Interdisciplinary Research Internship
Heating, ventilation and air conditioning (HVAC) equipment consume 35% of total building energy use in the US, among which a large share is used for cooling and dehumidification. The majority of air dehumidification systems take the conventional approach of moisture condensation removal. It requires air to be cooled below its dew point temperature and is an energy-intensive process, especially for areas with hot and humid climates. Vapor selective membrane systems are promising alternatives for air dehumidification as they do not require cooling energy for latent (humidity) heat removal. It allows water vapor transport through the membrane while blocking air. Previous …
Adaptable Clean Energy Laboratory, Joao Marcelo Rocha Belmonte, Marc D. Compere
Adaptable Clean Energy Laboratory, Joao Marcelo Rocha Belmonte, Marc D. Compere
Sustainability Conference
The Adaptable Clean Energy (ACE) Lab is a real-world, long term, test platform that will guide the courses of the Energy Systems track. The lab will provide realistic electrical and HVAC loads that mimic a solar powered office. The lab is a 20’ high cube shipping container modified with a door, windows, lights computers, air conditioner and appliances. The lab is Net-Zero and powered entirely from the sun. Two insulation test sections expose the exterior walls for research access to real external heat loads in a real building