Yusen Jiang, Xi Luo. Optimization of university timetables considering students’ thermal sensation in classrooms[J]. Energy and Built Environment, 2025, (5): 834-846.
DOI:
Yusen Jiang, Xi Luo. Optimization of university timetables considering students’ thermal sensation in classrooms[J]. Energy and Built Environment, 2025, (5): 834-846. DOI: 10.1016/j.enbenv.2024.03.007.
Optimization of university timetables considering students’ thermal sensation in classrooms
摘要
Abstract
In northern China
university classrooms are often densely populated
and students have limited means of thermal adaptation during lectures. Considering the significant differences in the thermal environment of the classroom throughout different periods
changing the patterns of classroom utilization is a feasible way to improve students’ thermal comfort during classes and ensure learning efficiency. A university teaching building in Xi'an is considered an example in this study. The indoor and outdoor thermal environment parameters of the teaching building were measured in the autumn semester
and the students’ thermal sensation was investigated. On this basis
a model for optimizing university timetables was developed to minimize students’ thermal discomfort in classrooms. The study results showed: 1) During non-heating seasons
students felt comfortable in all periods
except for the third class period (14:00–15:30)
during which they felt slightly hot. During the heating season
students felt slightly cold in the first class period (8:30–10:00)
slightly hot in the third class period
and comfortable in the second (10:30–12:00) and fourth (16:00–17:30) class periods. 2) Compared to the general schedule
the optimized timetable decreased first period classes by 14 and increased fourth period classes by 13
with minimal changes elsewhere. Adopting this approach
students’ thermal discomfort time during classes in the autumn semester was shortened by 6.16%. 3) The students’ thermal discomfort time reduction rate obtained by timetabling optimization during the non-heating season
heating season are 0.78%
8.91%
respectively. The effect of reducing students’ thermal discomfort is more pronounced during the heating season.
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