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Journal Articles
Accepted Manuscript
Publisher: ASME
Article Type: Research-Article
J. Heat Mass Transfer.
Paper No: HT-24-1362
Published Online: March 21, 2025
Journal Articles
Accepted Manuscript
André José Pereira de Oliveira, Diego C. Knupp, Luiz A. S. Abreu, David Mochcovsky, Antonio Jose Silva Neto
Publisher: ASME
Article Type: Research-Article
J. Heat Mass Transfer.
Paper No: HT-24-1387
Published Online: March 21, 2025
Journal Articles
Accepted Manuscript
Publisher: ASME
Article Type: Research-Article
J. Heat Mass Transfer.
Paper No: HT-24-1418
Published Online: March 21, 2025
Journal Articles
Publisher: ASME
Article Type: Research-Article
J. Heat Mass Transfer. June 2025, 147(6): 061901.
Paper No: HT-24-1355
Published Online: March 18, 2025
Journal Articles
Publisher: ASME
Article Type: Research-Article
J. Heat Mass Transfer. June 2025, 147(6): 061202.
Paper No: HT-24-1120
Published Online: March 18, 2025
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 1 The domains with uniform points: ( a ) Ω 1 and ( b ) Ω 2 More about this image found in The domains with uniform points: ( a ) Ω 1 and ( b ) ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 2 SPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of τ q : ( a ) τ q = 0 s , ( b ) τ q = 14 s , ( c ) τ q = 20 s , ( d ) τ q = 28 s ... More about this image found in SPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 3 DPL model—temperature distribution profiles in domains Ω 1 and Ω 2 at τ T = 20 s for different values of τ q : ( a ) τ q = 0 s , ( b ) τ q = 14 s , ( c ) τ q = 20 s ,... More about this image found in DPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 4 DPL model—temperature distribution profiles in domains Ω 1 and Ω 2 at τ q = 28 s for different values of τ T : ( a ) τ T = 0 s , ( b ) τ T = 10 s , ( c ) τ T = 15 s ,... More about this image found in DPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 5 SPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of H 0 : ( a ) H 0 = 5500 A / m , ( b ) H 0 = 6800 A / m , ( c ) H 0 = 7500 A / m , ( d ) ... More about this image found in SPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 6 DPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of H 0 : ( a ) H 0 = 5500 A / m , ( b ) H 0 = 6800 A / m , ( c ) H 0 = 7500 A / m , ( d ) ... More about this image found in DPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 7 SPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of ϕ : ( a ) ϕ = 2 × 10 − 4 , ( b ) ϕ = 3 × 10 − 4 , ( c ) ϕ = 4 × 10 − 4 , ( d ) ϕ = 5... More about this image found in SPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 8 DPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of ϕ : ( a ) ϕ = 2 × 10 − 4 , ( b ) ϕ = 3 × 10 − 4 , ( c ) ϕ = 4 × 10 − 4 , ( d ) ϕ = 5... More about this image found in DPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 9 SPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of f : ( a ) f = 200, ( b ) f = 250, ( c ) f = 300, ( d ) f = 350, ( e ) f = 200, ( f ) f = 250, ( g ) f = 300, and ( h ) f = 350 More about this image found in SPL model—temperature distribution profiles in domains Ω 1 ...
Image
in Computational Study on Single-Phase Lag and Dual-Phase Lag Bio-Heat Models of Heat Transfer in Irregular Tumors During Magnetic Nanoparticles Hyperthermia
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 10 DPL model—temperature distribution profiles in domains Ω 1 and Ω 2 for different values of f : ( a ) f = 200, ( b ) f = 250, ( c ) f = 300, ( d ) f = 350, ( e ) f = 200, ( f ) f = 250, ( g ) f = 300, and ( h ) f = 350 More about this image found in DPL model—temperature distribution profiles in domains Ω 1 ...
Image
in External Conjugate Boiling on Channels. A Graetz Problem With Multiple Solutions
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 1 Typical boiling curve More about this image found in Typical boiling curve
Image
in External Conjugate Boiling on Channels. A Graetz Problem With Multiple Solutions
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 2 Physical model and coordinate system More about this image found in Physical model and coordinate system
Image
in External Conjugate Boiling on Channels. A Graetz Problem With Multiple Solutions
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 3 Comparison of temperature profiles for G = 0 , Gz = 0.05 , and Θ 0 = 6 , showing the effect of wall conduction. Left: when wall conduction is considered, the solution depends on the CCP. The wall temperature lies in the nucleate regime for CCP < 3 an... More about this image found in Comparison of temperature profiles for G = 0 , Gz = 0.05 , an...
Image
in External Conjugate Boiling on Channels. A Graetz Problem With Multiple Solutions
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 4 Comparison of shape factors for G = 0 , Gz = 0.05 , and Θ 0 = 6 , showing the effect of wall conduction. The dependence of the shape factors on the CCP is weak when a unique solution is admitted and toward the end of the plate both models predict practically th... More about this image found in Comparison of shape factors for G = 0 , Gz = 0.05 , and ...
Image
in External Conjugate Boiling on Channels. A Graetz Problem With Multiple Solutions
> ASME Journal of Heat and Mass Transfer
Published Online: March 18, 2025
Fig. 5 Comparison of temperature profiles in the multiplicity region. Gz = 5 × 10 − 2 with Θ 0 = 8 and ϕ = 2 . Left: multiplicity structure in the presence of wall conduction. Three solutions exist, one in each boiling regime. The ones in the nucleate ... More about this image found in Comparison of temperature profiles in the multiplicity region. Gz = 5 ...
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