ansys fluent 18.0 (ANSYS inc)
90
Structured Review
ANSYS inc
ansys fluent 18.0
Ansys Fluent 18.0, supplied by ANSYS inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/ansys+fluent+18%2E0/ansys+cfx/pm40185802-213-157-157
Average 90 stars, based on 1 article reviews
Ansys Fluent 18.0, supplied by ANSYS inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/ansys+fluent+18%2E0/ansys+cfx/pm40185802-213-157-157
Average 90 stars, based on 1 article reviews
ansys fluent 18.0 - by Bioz Stars,
2026-09
90/100 stars
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Viscosity:Article Title: 6Computational Study of Gas-Solid, Two-Phase Interaction System and Particle Kinetics Establishing 3D Analysis Article Snippet: The numerical simulations were carried out using Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material Article Snippet: To obtain accurate results from our study, simulations were run on Article Title: Study on the Characteristics of Molten Glass in a Float Glass Process with a New Structure Article Snippet: Article Title: Aerosol dynamics in dental clinics: Effects of ventilation mode on the mitigation of airborne diseases transmission. Article Snippet: Dental operations inherently involve a high risk of airborne cross-infection among medical staff and patients due to the exposure of respiratory secretions, which contain pathogenic microorganisms and typically spread in the form of aerosols.. In order to contribute to the understanding of aerosol dynamics during dental operation and efficiently mitigate their dispersion and deposition through appropriate ventilation, 3D numerical simulations and full-scale experimental measurements were performed in this study.. The indoor airflow distribution and dynamic aerosol behaviors observed under three optimized ventilation schemes (Scenario I-III) were compared with those observed under the current ventilation system. Article Title: Parametric optimization of stacked-plate jet-impingement microchannel heat sink Article Snippet: In this paper, a stacked-plate jet-impingement microchannel heat sink (SP-JIMC) is developed which can achieve a total heat transfer surface area over 407.36 cm2 on a footprint area of 3 cm × 3 cm.. There are 1350 micro-fins distributed equally on the heating surface, which constitute over 1400 micro-channels.. According to the experimental results, when the micro-fin width and micro-channel width were both 0.5 mm, the channel height was 3.0 mm and the copperplate thickness was 0.3 mm, the lowest thermal resistance was 1.4 × 10-5 m2⋅K/W at an inlet mass flux of 162.05 kg/m2⋅s. Article Title: Exploring the potential of various nanofluids for thermal management of a lithium-ion battery Article Snippet: As favorable energy storage devices, lithium–ion batteries have always required effective cooling and thermal management.. This study attempts to compare the capability of eight types of nanofluids as liquid coolants for 14.6 Ah lithium-ion battery systems.. To achieve this goal, a set of 3D numerical simulations is conducted to evaluate the effect of key parameters, including eight nanofluids with different volume fractions, convective heat transfer coefficient, and ambient temperature, on the maximum temperature, temperature deviation, performance of LIB, and pumping power consumption. Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material. Article Snippet: Density of nano-PCM, liquid phase29: ρnl = (1 − φ)ρl + φρn (5) Density of nano-PCM, solid phase29: ρns = (1 − φ)ρs + φρn (6) Dynamic viscosity of nano-PCM, liquid phase29: μnl = μl (1 − φ)2.5 (7) Thermal conductivity of nano-PCM, liquid phase29: knl = kn + 2kl − 2φ(kl − kn)kl kn + 2kl + φ(kl − kn) (8) Thermal conductivity of nano-PCM, solid phase29: kns = kn + 2ks − 2φ(ks − kn)ks kn + 2ks + φ(ks − kn) (9) Expansion coefficient of nano-PCM, liquid phase29: (ρβ)nl = (1 − φ)(ρβ)l + φ(ρβ)n (10) Expansion coefficient of nano-PCM, solid phase29: (ρβ)ns = (1 − φ)(ρβ)s + φ(ρβ)n (11) Heat capacity of nano-PCM, liquid phase29: (ρCp)nl = (1 − φ)(ρCp)l + φ(ρCp)n (12) Heat capacity of nano-PCM, solid phase29: (ρCp)ns = (1 − φ)(ρCp)s + φ(ρCp)n (13) Grid independence test and validation To obtain accurate results from our study, simulations were run on Article Title: Numerical modeling and parameter optimization of the combustion chamber in a tower-type zinc refining furnace Article Snippet: Based on the above mathematical and physical model, and combined with boundary conditions, 3D steady-state calculation is performed using Biomarker Discovery:Article Title: 6Computational Study of Gas-Solid, Two-Phase Interaction System and Particle Kinetics Establishing 3D Analysis Article Snippet: The numerical simulations were carried out using Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material Article Snippet: To obtain accurate results from our study, simulations were run on Article Title: Study on the Characteristics of Molten Glass in a Float Glass Process with a New Structure Article Snippet: Article Title: Aerosol dynamics in dental clinics: Effects of ventilation mode on the mitigation of airborne diseases transmission. Article Snippet: Dental operations inherently involve a high risk of airborne cross-infection among medical staff and patients due to the exposure of respiratory secretions, which contain pathogenic microorganisms and typically spread in the form of aerosols.. In order to contribute to the understanding of aerosol dynamics during dental operation and efficiently mitigate their dispersion and deposition through appropriate ventilation, 3D numerical simulations and full-scale experimental measurements were performed in this study.. The indoor airflow distribution and dynamic aerosol behaviors observed under three optimized ventilation schemes (Scenario I-III) were compared with those observed under the current ventilation system. Article Title: Parametric optimization of stacked-plate jet-impingement microchannel heat sink Article Snippet: In this paper, a stacked-plate jet-impingement microchannel heat sink (SP-JIMC) is developed which can achieve a total heat transfer surface area over 407.36 cm2 on a footprint area of 3 cm × 3 cm.. There are 1350 micro-fins distributed equally on the heating surface, which constitute over 1400 micro-channels.. According to the experimental results, when the micro-fin width and micro-channel width were both 0.5 mm, the channel height was 3.0 mm and the copperplate thickness was 0.3 mm, the lowest thermal resistance was 1.4 × 10-5 m2⋅K/W at an inlet mass flux of 162.05 kg/m2⋅s. Article Title: Exploring the potential of various nanofluids for thermal management of a lithium-ion battery Article Snippet: As favorable energy storage devices, lithium–ion batteries have always required effective cooling and thermal management.. This study attempts to compare the capability of eight types of nanofluids as liquid coolants for 14.6 Ah lithium-ion battery systems.. To achieve this goal, a set of 3D numerical simulations is conducted to evaluate the effect of key parameters, including eight nanofluids with different volume fractions, convective heat transfer coefficient, and ambient temperature, on the maximum temperature, temperature deviation, performance of LIB, and pumping power consumption. Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material. Article Snippet: Density of nano-PCM, liquid phase29: ρnl = (1 − φ)ρl + φρn (5) Density of nano-PCM, solid phase29: ρns = (1 − φ)ρs + φρn (6) Dynamic viscosity of nano-PCM, liquid phase29: μnl = μl (1 − φ)2.5 (7) Thermal conductivity of nano-PCM, liquid phase29: knl = kn + 2kl − 2φ(kl − kn)kl kn + 2kl + φ(kl − kn) (8) Thermal conductivity of nano-PCM, solid phase29: kns = kn + 2ks − 2φ(ks − kn)ks kn + 2ks + φ(ks − kn) (9) Expansion coefficient of nano-PCM, liquid phase29: (ρβ)nl = (1 − φ)(ρβ)l + φ(ρβ)n (10) Expansion coefficient of nano-PCM, solid phase29: (ρβ)ns = (1 − φ)(ρβ)s + φ(ρβ)n (11) Heat capacity of nano-PCM, liquid phase29: (ρCp)nl = (1 − φ)(ρCp)l + φ(ρCp)n (12) Heat capacity of nano-PCM, solid phase29: (ρCp)ns = (1 − φ)(ρCp)s + φ(ρCp)n (13) Grid independence test and validation To obtain accurate results from our study, simulations were run on Article Title: Numerical modeling and parameter optimization of the combustion chamber in a tower-type zinc refining furnace Article Snippet: Based on the above mathematical and physical model, and combined with boundary conditions, 3D steady-state calculation is performed using Construct:Article Title: 6Computational Study of Gas-Solid, Two-Phase Interaction System and Particle Kinetics Establishing 3D Analysis Article Snippet: The numerical simulations were carried out using Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material Article Snippet: To obtain accurate results from our study, simulations were run on Article Title: Study on the Characteristics of Molten Glass in a Float Glass Process with a New Structure Article Snippet: Article Title: Aerosol dynamics in dental clinics: Effects of ventilation mode on the mitigation of airborne diseases transmission. Article Snippet: Dental operations inherently involve a high risk of airborne cross-infection among medical staff and patients due to the exposure of respiratory secretions, which contain pathogenic microorganisms and typically spread in the form of aerosols.. In order to contribute to the understanding of aerosol dynamics during dental operation and efficiently mitigate their dispersion and deposition through appropriate ventilation, 3D numerical simulations and full-scale experimental measurements were performed in this study.. The indoor airflow distribution and dynamic aerosol behaviors observed under three optimized ventilation schemes (Scenario I-III) were compared with those observed under the current ventilation system. Article Title: Parametric optimization of stacked-plate jet-impingement microchannel heat sink Article Snippet: In this paper, a stacked-plate jet-impingement microchannel heat sink (SP-JIMC) is developed which can achieve a total heat transfer surface area over 407.36 cm2 on a footprint area of 3 cm × 3 cm.. There are 1350 micro-fins distributed equally on the heating surface, which constitute over 1400 micro-channels.. According to the experimental results, when the micro-fin width and micro-channel width were both 0.5 mm, the channel height was 3.0 mm and the copperplate thickness was 0.3 mm, the lowest thermal resistance was 1.4 × 10-5 m2⋅K/W at an inlet mass flux of 162.05 kg/m2⋅s. Article Title: Exploring the potential of various nanofluids for thermal management of a lithium-ion battery Article Snippet: As favorable energy storage devices, lithium–ion batteries have always required effective cooling and thermal management.. This study attempts to compare the capability of eight types of nanofluids as liquid coolants for 14.6 Ah lithium-ion battery systems.. To achieve this goal, a set of 3D numerical simulations is conducted to evaluate the effect of key parameters, including eight nanofluids with different volume fractions, convective heat transfer coefficient, and ambient temperature, on the maximum temperature, temperature deviation, performance of LIB, and pumping power consumption. Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material. Article Snippet: Density of nano-PCM, liquid phase29: ρnl = (1 − φ)ρl + φρn (5) Density of nano-PCM, solid phase29: ρns = (1 − φ)ρs + φρn (6) Dynamic viscosity of nano-PCM, liquid phase29: μnl = μl (1 − φ)2.5 (7) Thermal conductivity of nano-PCM, liquid phase29: knl = kn + 2kl − 2φ(kl − kn)kl kn + 2kl + φ(kl − kn) (8) Thermal conductivity of nano-PCM, solid phase29: kns = kn + 2ks − 2φ(ks − kn)ks kn + 2ks + φ(ks − kn) (9) Expansion coefficient of nano-PCM, liquid phase29: (ρβ)nl = (1 − φ)(ρβ)l + φ(ρβ)n (10) Expansion coefficient of nano-PCM, solid phase29: (ρβ)ns = (1 − φ)(ρβ)s + φ(ρβ)n (11) Heat capacity of nano-PCM, liquid phase29: (ρCp)nl = (1 − φ)(ρCp)l + φ(ρCp)n (12) Heat capacity of nano-PCM, solid phase29: (ρCp)ns = (1 − φ)(ρCp)s + φ(ρCp)n (13) Grid independence test and validation To obtain accurate results from our study, simulations were run on Article Title: Numerical modeling and parameter optimization of the combustion chamber in a tower-type zinc refining furnace Article Snippet: Based on the above mathematical and physical model, and combined with boundary conditions, 3D steady-state calculation is performed using Software:Article Title: 6Computational Study of Gas-Solid, Two-Phase Interaction System and Particle Kinetics Establishing 3D Analysis Article Snippet: The numerical simulations were carried out using Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material Article Snippet: To obtain accurate results from our study, simulations were run on Article Title: Study on the Characteristics of Molten Glass in a Float Glass Process with a New Structure Article Snippet: Article Title: Aerosol dynamics in dental clinics: Effects of ventilation mode on the mitigation of airborne diseases transmission. Article Snippet: Dental operations inherently involve a high risk of airborne cross-infection among medical staff and patients due to the exposure of respiratory secretions, which contain pathogenic microorganisms and typically spread in the form of aerosols.. In order to contribute to the understanding of aerosol dynamics during dental operation and efficiently mitigate their dispersion and deposition through appropriate ventilation, 3D numerical simulations and full-scale experimental measurements were performed in this study.. The indoor airflow distribution and dynamic aerosol behaviors observed under three optimized ventilation schemes (Scenario I-III) were compared with those observed under the current ventilation system. Article Title: Parametric optimization of stacked-plate jet-impingement microchannel heat sink Article Snippet: In this paper, a stacked-plate jet-impingement microchannel heat sink (SP-JIMC) is developed which can achieve a total heat transfer surface area over 407.36 cm2 on a footprint area of 3 cm × 3 cm.. There are 1350 micro-fins distributed equally on the heating surface, which constitute over 1400 micro-channels.. According to the experimental results, when the micro-fin width and micro-channel width were both 0.5 mm, the channel height was 3.0 mm and the copperplate thickness was 0.3 mm, the lowest thermal resistance was 1.4 × 10-5 m2⋅K/W at an inlet mass flux of 162.05 kg/m2⋅s. Article Title: Exploring the potential of various nanofluids for thermal management of a lithium-ion battery Article Snippet: As favorable energy storage devices, lithium–ion batteries have always required effective cooling and thermal management.. This study attempts to compare the capability of eight types of nanofluids as liquid coolants for 14.6 Ah lithium-ion battery systems.. To achieve this goal, a set of 3D numerical simulations is conducted to evaluate the effect of key parameters, including eight nanofluids with different volume fractions, convective heat transfer coefficient, and ambient temperature, on the maximum temperature, temperature deviation, performance of LIB, and pumping power consumption. Article Title: Thermal and desalination performance enhancement of single slope solar still using phase change material. Article Snippet: Density of nano-PCM, liquid phase29: ρnl = (1 − φ)ρl + φρn (5) Density of nano-PCM, solid phase29: ρns = (1 − φ)ρs + φρn (6) Dynamic viscosity of nano-PCM, liquid phase29: μnl = μl (1 − φ)2.5 (7) Thermal conductivity of nano-PCM, liquid phase29: knl = kn + 2kl − 2φ(kl − kn)kl kn + 2kl + φ(kl − kn) (8) Thermal conductivity of nano-PCM, solid phase29: kns = kn + 2ks − 2φ(ks − kn)ks kn + 2ks + φ(ks − kn) (9) Expansion coefficient of nano-PCM, liquid phase29: (ρβ)nl = (1 − φ)(ρβ)l + φ(ρβ)n (10) Expansion coefficient of nano-PCM, solid phase29: (ρβ)ns = (1 − φ)(ρβ)s + φ(ρβ)n (11) Heat capacity of nano-PCM, liquid phase29: (ρCp)nl = (1 − φ)(ρCp)l + φ(ρCp)n (12) Heat capacity of nano-PCM, solid phase29: (ρCp)ns = (1 − φ)(ρCp)s + φ(ρCp)n (13) Grid independence test and validation To obtain accurate results from our study, simulations were run on Article Title: Numerical modeling and parameter optimization of the combustion chamber in a tower-type zinc refining furnace Article Snippet: Based on the above mathematical and physical model, and combined with boundary conditions, 3D steady-state calculation is performed using |