TY - JOUR
T1 - Quantitative Analysis of Height-Difference Ventilation in Residential Buildings
T2 - Application in Higher Education and Architectural Design in Shanghai
AU - Zhang, Lei
AU - Huang, Xin
AU - Zhong, Jie
AU - Zhong, Hua
N1 - Publisher Copyright:
©2024 The authors.
PY - 2024/8
Y1 - 2024/8
N2 - This study investigates the ventilation performance driven by height differences in residential buildings within the Shanghai region, utilizing a quantitative experiment framework based on the Virtualwind (VW) platform. The research emphasizes the integration of a "wind performance-oriented design" (WPOD) paradigm, aimed at promoting sustainable architectural practices. A core objective of this research is to develop a robust set of quantitative control methodologies for height-difference ventilation, designed to streamline the traditionally complex and time-consuming process of case-by-case analysis into a series of precise and reliable wind performance metrics. These metrics are intended to be incorporated into the early stages of architectural design, functioning similarly to the control of sunlight spacing, and serving as critical guiding parameters that align architectural design with natural environmental factors. The WPOD approach is anticipated to optimize ventilation efficiency in residential environments, thereby enhancing the living conditions in densely populated urban areas like Shanghai. Additionally, the paper explores the application of the WPOD design paradigm in higher education, with a focus on its integration into architectural teaching curricula, aiming to equip future architects with the skills necessary to incorporate sustainable design principles into their practice. The results of this study are expected to provide a scientific basis for the development of architectural designs that harmonize with the natural environment, contributing to both the field of architecture and the advancement of sustainable living environments.
AB - This study investigates the ventilation performance driven by height differences in residential buildings within the Shanghai region, utilizing a quantitative experiment framework based on the Virtualwind (VW) platform. The research emphasizes the integration of a "wind performance-oriented design" (WPOD) paradigm, aimed at promoting sustainable architectural practices. A core objective of this research is to develop a robust set of quantitative control methodologies for height-difference ventilation, designed to streamline the traditionally complex and time-consuming process of case-by-case analysis into a series of precise and reliable wind performance metrics. These metrics are intended to be incorporated into the early stages of architectural design, functioning similarly to the control of sunlight spacing, and serving as critical guiding parameters that align architectural design with natural environmental factors. The WPOD approach is anticipated to optimize ventilation efficiency in residential environments, thereby enhancing the living conditions in densely populated urban areas like Shanghai. Additionally, the paper explores the application of the WPOD design paradigm in higher education, with a focus on its integration into architectural teaching curricula, aiming to equip future architects with the skills necessary to incorporate sustainable design principles into their practice. The results of this study are expected to provide a scientific basis for the development of architectural designs that harmonize with the natural environment, contributing to both the field of architecture and the advancement of sustainable living environments.
KW - architectural education
KW - height-difference ventilation
KW - quantitative analysis
KW - sustainable architecture
KW - wind performance-oriented design (WPOD)
UR - https://www.scopus.com/pages/publications/85203272254
U2 - 10.18280/ijht.420403
DO - 10.18280/ijht.420403
M3 - Article
AN - SCOPUS:85203272254
SN - 0392-8764
VL - 42
SP - 1129
EP - 1138
JO - International Journal of Heat and Technology
JF - International Journal of Heat and Technology
IS - 4
ER -