Micro-nano engineered surfaces for enhanced heat transfer

The development of new technologies ranging from computers, data centers, medical applications, electric cars and lasers has trigged the need for high heat flux removal technologies. Today it is recognized that manufacturability is not the limiting factor with regards to the small size of the devices, and that the major challenge is how to remove the heat from a confined space, i.e. the power dissipation.

           
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Experimental Facilities

Facility for measurement of wicking velocity

Facility for droplet impact on surfaces

Facility for pool boiling

Facility for micro-channels

Details about the facilities can be found in the Thermal Two Phase Flow Laboratory. Main Characteristics of the facility:

 

Water droplet over Si micro-pillar surface at a temperature of 350C. Micro- pillars W40 P30 H40 SQ .

More videos

PhD Thesis

Espen Rogstad, (2016 - 2019). Study of annular-mist flow.
Supervisor: Carlos A. Dorao, Co-Supervisor: Maria Fernandino.

Manuel Auliano, (2014-2). Fund. study of hydrodynamics in annular-mist flow.
Supervisor: Carlos A. Dorao, Co-Supervisor: Maria Fernandino.

MSc. Thesis

Eivind Grøstad, (2015). Micro engineered surfaces for enhanced heat transfer. Project Thesis. NTNU.

Undergraduate Thesis

Eivind Grøstad, (2015). Micro engineered surfaces for enhanced heat transfer. Project Thesis. NTNU.

Deukkyu Lee, (2015). Fabricating microscale pillars on the silicon wafer with SU-8 5 and its application. Project Thesis. NTNU.

Øyvind Huuse. Micro-nano enhanced surface design and fabrication of micro pillars for pool boiling. Project Thesis. NTNU.

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