Heat transfer augmentation of triplex type latent heat thermal energy storage using combined eccentricity and longitudinal fin

The universe has shifted its focus from non-renewable to renewable energy sources from the last decade. The limited availability of fossil fuels and pollution is the reason behind the utilization of renewable sources. A major renewable energy source, solar energy, requires efficient thermal energy s...

Full description

Bibliographic Details
Published in:Journal of energy storage Vol. 50. P. 104167
Main Author: Patel, Jay R.
Other Authors: Rathod, Manish K., Sheremet, Mikhail A.
Format: Article
Language:English
Subjects:
Online Access:http://vital.lib.tsu.ru/vital/access/manager/Repository/koha:001001190
Перейти в каталог НБ ТГУ
LEADER 03078nab a2200349 c 4500
001 koha001001190
005 20230511140726.0
007 cr |
008 230502|2022 ne s a eng d
024 7 |a 10.1016/j.est.2022.104167  |2 doi 
035 |a koha001001190 
040 |a RU-ToGU  |b rus  |c RU-ToGU 
100 1 |a Patel, Jay R.  |9 884741 
245 1 0 |a Heat transfer augmentation of triplex type latent heat thermal energy storage using combined eccentricity and longitudinal fin  |c J. R. Patel, M. K. Rathod, M. A. Sheremet 
336 |a Текст 
337 |a электронный 
504 |a Библиогр.: 55 назв. 
520 3 |a The universe has shifted its focus from non-renewable to renewable energy sources from the last decade. The limited availability of fossil fuels and pollution is the reason behind the utilization of renewable sources. A major renewable energy source, solar energy, requires efficient thermal energy storage due to its intermittent nature. Phase change material (PCM) can store a large amount of heat by changing its phases. However, the low thermal conductivity of PCM makes its usage very limited. Hence, PCM's heat transfer augmentation technique using eccentricity and fin is studied in the present research. First of all, positive (lower displacement of the inner tube) and negative eccentricity (upper displacement of the inner tube) are studied in triplex type latent heat thermal energy storage (TTLHTES). Among the eccentricities of-15 mm to +15 mm, the eccentricity of +10 mm is found most effective in melting with a 27.63% reduction in melting time, while-3 mm eccentricity is found most effective in solidification with a 12.82% reduction in solidification time. The combination of fins with eccentricity is examined for melting and solidification enhancement. The combination of fin and eccentricity efficiently reduces melting time, with a maximum decrement of 67.37% with +3 mm eccentric TTLHTES with four fins. However, the only fin without any eccentricity is found more effective in solidification enhancement. The solidification time is reduced maximum by 46.15% using four longitudinal fins and no eccentricity. It can be concluded that fin and eccentricity must be coupled when melting time is required to enhance. However, only fin must be utilized when solidification is more critical. 
653 |a материалы с фазовым переходом 
653 |a теплопередача 
653 |a эксцентриситет 
653 |a оребрение 
655 4 |a статьи в журналах  |9 884742 
700 1 |a Rathod, Manish K.  |9 884743 
700 1 |a Sheremet, Mikhail A.  |9 89131 
773 0 |t Journal of energy storage  |d 2022  |g Vol. 50. P. 104167  |x 2352-152X 
852 4 |a RU-ToGU 
856 4 |u http://vital.lib.tsu.ru/vital/access/manager/Repository/koha:001001190 
856 |y Перейти в каталог НБ ТГУ  |u https://koha.lib.tsu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=1001190 
908 |a статья 
999 |c 1001190  |d 1001190 
039 |b 100