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Timoshenko, D. A.; Timoshenko, D. D.; Golovushkin, A. A.

doi:10.1023/a:1015401020463

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Geometry: H/d Ratio1

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2023

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Cited by 3 publications

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“…Timoshenko et al [80][81][82] has reported numerical modeling results using BGI, changing the height/diameter ratio of the EAF. Their results indicate that by increasing the H/D ratio from 0.18 to 0.33, the time to heat the liquid from 1500 to 1650 °C decreases by about 12-16%.…”

Section: Geometry: H/d Ratiomentioning

confidence: 99%

Electric Arc Furnace Stirring: A Review

Conejo

Yan

2023

steel research int.

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Section: Geometry: H/d Ratiomentioning

confidence: 99%

Electric Arc Furnace Stirring: A Review

Conejo

Yan

2023

steel research int.

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Skin Bioheat Transfer and Skin Thermal Damage

Xu¹,

Lu²

2011

Introduction to Skin Biothermomechanics and Thermal Pain

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Mathematical Modeling of Skin Bioheat Transfer

Seffen

et al. 2009

Applied Mechanics Reviews

191

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Advances in laser, microwave, and similar technologies have led to recent developments of thermal treatments for disease and injury involving skin tissue. In spite of the widespread use of heating therapies in dermatology, they do not draw upon the detailed understanding of the biothermomechanics of behavior, for none exists to date, even though each behavioral facet is well established and understood. It is proposed that a detailed understanding of the coupled biological-mechanical response under thermal agitation will contribute to the design, characterization, and optimization of strategies for delivering better treatment. For a comprehensive understanding on the underlying mechanisms of thermomechanical behavior of skin tissue, recent progress on bioheat transfer, thermal damage, thermomechanics, and thermal pain should be systematically reviewed. This article focuses on the transfer of heat through skin tissue. Experimental study, theoretical analysis, and numerical modeling of skin thermal behavior are reviewed, with theoretical analysis carried out and closed-form solutions obtained for simple one-layer Fourier theory based model. Non-Fourier bioheat transfer models for skin tissue are discussed, and various skin cooling technologies summarized. Finally, the predictive capacity of various heat transfer models is demonstrated with selected case studies.

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Cited by 3 publications

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Electric Arc Furnace Stirring: A Review

Electric Arc Furnace Stirring: A Review

Skin Bioheat Transfer and Skin Thermal Damage

Mathematical Modeling of Skin Bioheat Transfer

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