A review on correlations of bubble growth mechanisms and bubble dynamics parameters in nucleate boiling

M.Ghazivini,; Hafez, Mazen; Ratanpara, Abhishek; Kim, Myeongsub

doi:10.1007/s10973-021-10876-2

Cited by 19 publications

(4 citation statements)

References 201 publications

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“…Focusing on bubble departure frequency, which is simpler to observe during experimentation than other bubble characteristics, serves as a valuable metric for assessing the effectiveness of boiling on a given surface. This frequency is linked to the heater's dissipation potency, depending on both the growth time of the bubbles and the recovery time of the microlayer of fluid, which rewets and cools the heater upon bubble departure [23].…”

Section: Of 12mentioning

confidence: 99%

On the Intrinsic Properties Effects of the Heater Surface in Nucleate Pool Boiling: A Simulation Study

Mazzitello,

Masson,

Marcel

2023

Preprint

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This study explores how the properties of heater materials impact nucleate pool boiling using a comprehensive simulation model. The model integrates well-known heat transfer mechanisms, allowing us to assess the effects of two distinct heater materials. Findings indicate that materials with higher thermal conductivity, such as copper, notably improve refrigeration efficiency in nucle- ate boiling. The study provides insights into the relationship between bubble growth, microlayer recovery beneath a bubble, temperature fluctuations, and heater properties. Comparisons between copper and silicon oxide underscore variations in bubble frequency, attributed to differences in bubble growth time, microlayer recovery time, and material-dependent behavior. The influence of neighboring bubbling sites, especially pronounced in silicon oxide due to its low thermal conductivity and diffusivity, was observed. Temperature variations in such materials became highly visible due to their significant inertia in recovery. Simulation results align well with empirical correlations, confirming the model’s versatility in capturing the intricate phenomena of nucleate pool boiling.

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Section: Of 12mentioning

confidence: 99%

On the Intrinsic Properties Effects of the Heater Surface in Nucleate Pool Boiling: A Simulation Study

Mazzitello,

Masson,

Marcel

2023

Preprint

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“…Thus, the biggest problem of using CVD to produce graphene is the complex process (low efficiency) and the consequent high cost. Recently, many studies have shown that bubbles as a new tool have a significant impact on the production of few-layer graphene (bubble-mediated technique); the bubbles can create a large amount of gas/liquid or gas/solid interfaces within a limited space [17][18][19]. Because of their unique morphological characteristics, bubbles can be used as the favorite interface for graphene growth and as a driving force for breaking graphite layers to prepare graphene at high temperatures.…”

Section: Introductionmentioning

confidence: 99%

“…In addition, a CO 2 bubble-mediated production of graphene via a vapor-liquid reaction in Mg melt was realized in our previous research to fabricate graphene. The input of CO 2 bubbles can make the reaction environment more stable so that the quality of graphene can be controlled effectively [10][11][12][13][14][15][16][17][18][19][20][21][22][23]. However, the regulation and growth process of graphene should be further researched and explored in detail.…”

Section: Introductionmentioning

confidence: 99%

Bubble-Mediated Production of Few-Layer Graphene via Vapor–Liquid Reaction between Carbon Dioxide and Magnesium Melt

Li,

Wang,

Shi

et al. 2024

Materials

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It is urgent to develop novel technologies to convert carbon dioxide to graphene. In this work, a bubble-mediated approach via a chemical reaction between carbon dioxide gas and magnesium melt to fabricate a few-layer graphene was illustrated. The morphology and defects of graphene can be regulated by manipulating the melt temperature. The preparation of graphene at 720 °C exhibited an excellent quality of surface and graphitization degree. The high-quality few-layer graphene can be grown under the combined effect of carbon dioxide bubbles and in-situ grown MgO. This preparation method possesses the advantages of high efficiency, low cost, and environmental protection, which may provide a new strategy for the recovery and reuse of greenhouse gases.

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“…However, there are strict constraints on the use of these empirical correlations, and it is not easy to achieve ideal results outside of their own experimental conditions [15]. The prediction of various parameters of bubble dynamics always relies on accurate boiling-heat-transfer mechanisms, and these theoretically derived parameters of bubble dynamics will, in turn, affect subsequent heat-transfer calculations, making accurate prediction of the boiling process significantly more difficult [16]. Therefore, the goal of this paper is that mathematical descriptions of the various stages of bubble behavior and force analysis are reviewed and summarized, and the accuracy and applicability of these models are further analyzed to provide valuable references for subsequent boiling-heat-transfer calculations and heat-transfer enhancement.…”

Section: Introductionmentioning

confidence: 99%

A Review of Pool-Boiling Processes Based on Bubble-Dynamics Parameters

Xiao,

Zhuang,

et al. 2023

Applied Sciences

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Immersion cooling is widely used for thermal management of servers. The two-phase immersion cooling, which transfers heat by boiling, possesses efficient temperature control ability under intensive heat generation. In the process of temperature control through boiling, the generation and transportation of bubbles play a crucial role in calculating the heat-transfer capacity. Therefore, it holds immense significance to obtain a profound understanding of the mechanisms underlying bubble formation and detachment. Currently, numerous mechanistic explanations and empirical correlations have been proposed to elucidate the various parameters of bubbles during the boiling process. These findings were considered to be valuable references when selecting appropriate boiling media and designing efficient heating surfaces. To comprehensively present the progress of bubble formation and heat transfer in the boiling system, the forces exerted on the bubbles are highlighted in this article. A meticulous review of bubble-force analysis and correlation formulae pertaining to various relevant parameters (e.g., nucleation sites density, bubble growth rate, bubble growth period, and detachment frequency) was conducted. This review article was also expected to provide a novel foundation for further exploration of enhanced boiling heat transfer.

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A review on correlations of bubble growth mechanisms and bubble dynamics parameters in nucleate boiling

Cited by 19 publications

References 201 publications

On the Intrinsic Properties Effects of the Heater Surface in Nucleate Pool Boiling: A Simulation Study

On the Intrinsic Properties Effects of the Heater Surface in Nucleate Pool Boiling: A Simulation Study

Bubble-Mediated Production of Few-Layer Graphene via Vapor–Liquid Reaction between Carbon Dioxide and Magnesium Melt

A Review of Pool-Boiling Processes Based on Bubble-Dynamics Parameters

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