Víctor Elías Torres-Heredia
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Víctor Elías Torres-Heredia has a total of 6 co-authors. Here are the top co-authors by number of shared publications:
- Jesús Delgado-Maciel
Tecnológico Nacional de México, Instituto Tecnológico de Orizaba, Av. Oriente 9 No. 852 Col. Emiliano Zapata, Orizaba 94320, Veracruz, Mexico
1 shared publication - José Ernesto Domínguez-Herrera
Industrial Maintenance Engineering, Technological University of the Center of Veracruz, Cuitlahuac, Veracruz, México
1 shared publication - José Roberto Grande-Ramírez
Tecnológico Nacional de México, Instituto Tecnológico de Orizaba, Av. Oriente 9 No. 852 Col. Emiliano Zapata, Orizaba 94320, Veracruz, Mexico
1 shared publication - Octavio Maldonado Saavedra
Postgraduate Coordination, Engineering for Smart Manufacturing, Universidad Tecnológica del Centro de Veracruz, Cuitláhuac 94910, Veracruz, Mexico
1 shared publication - Roberto Alvarado-Juárez
Postgraduate Coordination, Engineering for Smart Manufacturing, Universidad Tecnológica del Centro de Veracruz, Cuitláhuac 94910, Veracruz, Mexico
1 shared publication - Xochitl Morales Morales
Instituto Tecnológico Superior de Tantoyuca, Tecnológico Nacional de México, Desviación Lindero Tametate S/N, Col. La Morita, Tantoyuca 92100, Veracruz, Mexico
1 shared publication
Latest Publications
- Open Access
Numerical Investigation of Thermal Radiation Absorption by Humid Air and Its Impact on Conjugate Heat and Mass Transfer into a Room with a Semitransparent Wall
In indoor thermal analyses, the effect of humid air as a radiatively participating medium that absorbs and emits energy is often neglected. This simplification can underestimate important values in the results. This study presents a numerical investigation of the humid air that participates radiatively in the conjugate heat and mass transfer convection into a room modeled as a two-dimensional square cavity with a semitransparent wall (glass). The governing equations for mass, momentum, energy, species transport, turbulence, and radiative heat transfer were solved using the Finite Volume Method and coupled with the SIMPLEC algorithm. Two scenarios were analyzed: a radiatively participating medium (RPM) and a non-participating medium (NPM), under two climatic conditions (hot and cold). Results show that considering the radiatively participating medium breaks the symmetric patterns observed in the case of NPM. The energy absorbed by humid air enhances turbulent viscosity, buoyant forces, and indoor temperature. Humid air absorbs approximately 30–32% of the incident energy entering the enclosure. Finally, a correlation for the average temperature is proposed. The results provide insight into the influence of radiatively participating humid air on indoor-like thermal behavior. The study focuses on the analysis of fundamental transport mechanisms.
Open AccessNumerical Investigation of Thermal Radiation Absorption by Humid Air and Its Impact on Conjugate Heat and Mass Transfer into a Room with a Semitransparent Wall
In indoor thermal analyses, the effect of humid air as a radiatively participating medium that absorbs and emits energy is often neglected. This simplification can underestimate important values in the results. This study presents a numerical investigation of the humid air that participates radiatively in the conjugate heat and mass transfer convection into a room modeled as a two-dimensional square cavity with a semitransparent wall (glass). The governing equations for mass, momentum, energy, species transport, turbulence, and radiative heat transfer were solved using the Finite Volume Method and coupled with the SIMPLEC algorithm. Two scenarios were analyzed: a radiatively participating medium (RPM) and a non-participating medium (NPM), under two climatic conditions (hot and cold). Results show that considering the radiatively participating medium breaks the symmetric patterns observed in the case of NPM. The energy absorbed by humid air enhances turbulent viscosity, buoyant forces, and indoor temperature. Humid air absorbs approximately 30–32% of the incident energy entering the enclosure. Finally, a correlation for the average temperature is proposed. The results provide insight into the influence of radiatively participating humid air on indoor-like thermal behavior. The study focuses on the analysis of fundamental transport mechanisms.