Enhanced Boiling Heat Transfer

Code

L2-7172 (C) - included in ARIS records

Head

PhD Iztok Golobič

Period

9/1/2005 - 8/31/2008

Range in 2008

0.67 FTE

Science

Engineering sciences and technologies (7)
Other (1)

Reseacher status

Researcher (8)
Junior expert or technical associate (0)

Education

Doctor's degree (4)
Other (4)

Sex

Man (8)

Status

Employed at RO and RRD (3)
No data on employment in RO (5)

No. of publications

0 (1)
1–9 (3)
10–99 (1)
100–999 (3)

Projects / Programmes source: ARIS

source: ARIS

Enhanced Boiling Heat Transfer

Research activity

Code	Science	Field	Subfield
2.13.00	Engineering sciences and technologies	Process engineering

Code	Science	Field
T200	Technological sciences	Thermal engineering, applied thermodynamics

Keywords

enhanced heat transfer, boiling, nucleation, microchannel, modulated porous layer

Evaluation (rules)

source: COBISS

Evaluation of bibliographic research performance indicators according to ARIS methodology

Citations Citations for bibliographic records in COBIB.SI that are linked to records in citation databases

source: WoS

source: Scopus

source: COBISS

Researchers (8)

no.	Code	Name and surname	Research area	Role	Period	No. of publicationsNo. of publications
1.	12384	Medard Bergant	Process engineering	Researcher	2005 - 2008	5
2.	12359	PhD Henrik Gjerkeš	Energy engineering	Researcher	2005 - 2006	237
3.	05566	PhD Iztok Golobič	Process engineering	Head	2005 - 2008	773
4.	22620	Vito Lojk		Technical associate	2005	9
5.	13736	Stanislav Mohar	Process engineering	Researcher	2008	0
6.	26177	PhD Jure Petkovšek	Systems and cybernetics	Researcher	2005 - 2008	32
7.	27773	PhD Ivan Sedmak	Process engineering	Technical associate	2006 - 2008	111
8.	04123	Ivan Vilfan	Process engineering	Researcher	2005 - 2007	6

Organisations (1)

no.	Code	Research organisation	City	Registration number	No. of publicationsNo. of publications
1.	0782	University of Ljubljana, Faculty of Mechanical Engineering	Ljubljana	1627031	29,212

Abstract

Design of enhanced boiling heat transfer surfaces requires understanding of interactions between phenomena, which occur in boiling. For the observation of the boiling phenomena, especially interaction between nucleation sites and coalescence between growing bubbles on thin heating foil, active nucleation sites formation in bounded space in microchannels from 5x5 to 50x50 micrometers and enhanced heat transfer on modulated porous layer, a digital high-speed camera, high-speed infrared camera, microscope and liquid crystal thermography will be used. The ability to predict the boiling condition from the surface characteristics would enable the performance of boiling heat transfer surfaces to be optimized. Experimental results will be basis for the modelling of the heat transfer in boiling on the thin heating wall using developed hybrid model.