Research On Architectural Form Design Of University Library In Hot Summer And Warm Winter Area Based On Energy Consumption Simulation Analysis

Library buildings,including provincial public libraries,municipal public libraries and university libraries,are becoming larger and larger.In the public buildings of colleges and universities,the unreasonable energy-saving design of single building and the malpractice of building structure design are the main influencing factors of higher transport capacity consumption of public buildings in Colleges and universities.As one of the representatives of public buildings with the largest number of users and the highest frequency of use in Colleges and universities,university library needs a lot of energy to ensure the comfort of indoor physical environment in the process of daily use,and its high energy consumption characteristics are worth studying.Based on the above research background,this paper takes the form of university library with various functions and high frequency of use as the research object,mainly studies the relationship between form design parameters and building energy consumption,and makes a quantitative analysis.According to the actual research and literature review,this paper summarizes the typical shape design characteristics of Libraries in hot summer and warm winter areas,analyzes the shape parameters,establishes simulation experimental model,simulates and analyzes each shape parameter,obtains the quantitative relationship between each shape parameter and energy consumption,and puts forward multiple regression model to study the shape design method of University Libraries in hot summer and warm winter areas with low energy consumption as the goal Law.The full text is divided into three parts and six chapters.The first part: introduction introduces the theoretical research and energy consumption characteristics of low energy consumption design of library buildings in hot summer and warm winter areas,and expounds the limitations of shape optimization design.This paper expounds the purpose and significance of the research,summarizes the shortcomings of the research on the low energy consumption design of University Libraries in hot summer and warm winter areas by combing the research status at home and abroad,and establishes the research content,methods and research framework.The second part: the second chapter mainly combs the development status and development trend of university library,has a clear understanding of the characteristics of library building space form and the organization form of functional space in hot summer and warm winter area,summarizes the commonness and characteristics of university library,and analyzes the composition and energy consumption influencing factors of university library.Combined with the relevant knowledge of building energy-saving technology,morphological characteristics and influencing factors are analyzed;the third chapter is the author’s summary of some important building morphological parameters of University Libraries in hot summer and warm winter areas,which lays a solid data foundation for the energy consumption simulation experiment.The third part: the fourth chapter introduces the parameter setting of the energy consumption simulation experiment,and proves the correctness and reliability of the experimental ideas through the actual case energy consumption simulation of Guangzhou University Library and Guangdong University of technology phase II library.In the fifth chapter,several important building parameters of University Library in hot summer and warm winter area are simulated by energy consumption simulation experiment.Through the energy consumption simulation experiment data,the influence of several building shape parameters of University Library on building energy consumption is analyzed,and with the help of data statistics software,several energy consumption simulation multiple linear regression equations are obtained,and the building shape of university library is established The quantitative relationship between state parameters and library energy consumption.