Heat transfer—A review of 2004 literature

Goldstein, R. J.; Ibele, W.E.; Patankar, S. V.; Simon, Terrence W.; Kuehn, Thomas H.; Strykowski, Paul J; Tamma, Kumar K.; Heberlein, J.; Davidson, Jane H.; Bischof, John C.; Kulacki, F. A.; Kortshagen, Uwe R.; Garrick, Sean C.; Srinivasan, Vinod; Ghosh, Kalyanjit; Mittal, Rajat

doi:10.1016/j.ijheatmasstransfer.2010.05.004

Cited by 37 publications

(19 citation statements)

References 2,122 publications

(96 reference statements)

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“…As examples, porous ceramic structures are used as filters for molten metal [1], water [2] or gas [3] and microfiltration by membranes, but also to process fuel cell electrodes [4], for thermal energy storage devices [5], and for sound [6] or thermal insulation [7]. All these applications are typically developed with isotropic porous materials.…”

Section: Introductionmentioning

confidence: 99%

Thermal conductivity of ceramic/metal composites from preforms produced by freeze casting

Hautcoeur

Lorgouilloux

Leriche

et al. 2016

Ceramics International

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Section: Introductionmentioning

confidence: 99%

Thermal conductivity of ceramic/metal composites from preforms produced by freeze casting

Hautcoeur

Lorgouilloux

Leriche

et al. 2016

Ceramics International

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“…Despite very large reserves, their exploitation is limited by their high viscosity". Looking for best ways to overcome this limitation, several reviews, experimental and numerical works are available in scientific literature, as for example : Pouraria et al (2016), Hart et al (2014), Santos et al (2014), Aiyejina et al (2011), Palau et al (2011), Phillips et al (2011), Goldstein et al (2010, Li et al (2010), Ashrafizadeh and Kamran (2010), Guozhong and Gang (2010), Saniere et al (2004), among others, reflecting the interest of the scientific community and industry on this topic.…”

Section: Introductionmentioning

confidence: 99%

Influence of heat transfer on two-phase flow behavior in onshore oil pipelines

et al. 2016

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<p>Computational tools for simulation of multiphase flow in oil pipelines are of great importance for the determination of the technical feasibility of the production in oilfields. The present article presents the mathematical and numerical modeling of the oil biphasic flow in a partially submerged onshore pipeline. The biphasic behavior of the heavy oil of 13,2ºAPI is translated by the Dukler correlation. The oil’s viscosity is regarded as dependent on the temperature and on the API density of the oil by means of the Hossain correlation. The pipeline, of 3,600m and 4 inches (10.16cm) in diameter, transports the oil from a collecting station to a storage center and consists of three sections. The first and third sections are above ground and are in contact with the external environment. The intermediate section is sitting on the river bed and is the critical part of the pipeline, once high heat losses are observed. The influence on the type of pipe insulation in the pressure and temperature gradients was analyzed with the aid of commercial 1D software Pipesim®. The results, of this 1D and non-isothermal problem with prescribed outlet pressure, show that the use of isolation when appropriately designed in terms of material quality and thickness is of utmost importance to maintain the heat transfer at low levels, in order to ensure the movement of fluids in long sections without compromising the system operation.</p>

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“…The objective of the present work is to find out a generalized correlation that can be used to estimate the fin efficiency of any kind of high performance fins. This task is vital in order to avoid seeking for the exact fin efficiency equation among the large number of researches devoted to this topic in the literature [12][13][14][15][16][17][18][19]. To achieve the latter objective, the common characteristics that most high performance fins share need to be identified and analyzed.…”

Section: Introductionmentioning

confidence: 99%

“…To achieve the latter objective, the common characteristics that most high performance fins share need to be identified and analyzed. It should be mentioned that the previous objectives received almost no attention in the heat transfer literature [18,19]. As such, they have been considered as the main motivation behind the present work.…”

Section: Introductionmentioning

confidence: 99%

Generalized Correlations for Heat Transfer through High Performance Fins

Khaled

Arabia²

2013

Advances in Mechanical Engineering

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Analysis of heat transfer through different candidates for high performance fins is considered in this work. These candidates are: (A) fins of constant cross-sectional area, (B) fins of constant cross-sectional area gradient, and (C) radial fins with powerlaw cross-sectional area distribution. The types (A) and (B) fins are allowed having variable power-law profile distributions. The energy equation for each case is solved analytically, and closed form equations for various performance indicators including the fin efficiency are obtained. It is identified that high performance fins are those fins having larger tip and surface areas and smaller tip thickness than those of the straight fin. These effects tend to augment the fin heat transfer rate. One of the indicators of the type (A) fins is found to become dependent on the tip thickness when it is smaller than the base thickness and for thermal lengths larger than 1.5. The type (C) fins are found to transfer more thermal energy than the type (B) fins under same tip area and tip thickness. Finally, generalized correlations for the fin efficiency of high performance fins as function of base and tip areas and thicknesses and the thermal length are proposed and validated.

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Heat transfer—A review of 2004 literature

Cited by 37 publications

References 2,122 publications

Thermal conductivity of ceramic/metal composites from preforms produced by freeze casting

Thermal conductivity of ceramic/metal composites from preforms produced by freeze casting

Influence of heat transfer on two-phase flow behavior in onshore oil pipelines

Generalized Correlations for Heat Transfer through High Performance Fins

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