Innovation Series: Advanced Science

Volume 2 · Issue 3 (2025)

Sustainable Development Framework for Low-Carbon Building Transition

 

Tingyue Hao

School of Civil Engineering, Tangshan College, Tangshan City, Hebei, China

 

This paper was funded by Science Research Project of Hebei Education Department (ZC2023044) and Doctoral Innovation Fund Project of Tangshan College (141905).

 

Abstract: To achieve the dual carbon goals, effective approaches to building sustainability are proposed from four perspectives: low-carbon building design, low-carbon building energy use, low-carbon building materials, and low-carbon construction methods. How to achieve low-carbon building design is discussed through five aspects: the building itself, lighting, windows, landscape gardening, and rainwater recycling. Moreover, how to achieve low-carbon building energy use is explored through four aspects: solar energy, bioenergy, wind energy, and heating and cooling. Finally, the contributions of green transformation to sustainable development are summarized and concluded.

 

Keywords: Low-Carbon, Building, Sustainable Development

 

References

[1]
The General Office of the Central Committee of the Communist Party of China and the General Office of the State Council. The Opinions of the Central Committee of the Communist Party of China and the State Council on Fully, Accurately, and Comprehensively Implementing New Development Concepts to Achieve Carbon Peak and Carbon Neutrality [EB/OL]. (2021-10-24) [2022-05-20]. http://www.gov.cnxinwen/2021-10/24/content_5644613.htm
[2]
China Building Energy Consumption and Carbon Emission Research Report (2023).
[3]
Li Hu. Study on the influence of passive energy saving technology on the life cycle energy consumption and carbon emission of primary and secondary school teaching buildings. Xi 'an: Xi'an University of Architecture and Technology, 2021.
[4]
Li Cheng. Development status of zero-carbon buildings. Green Building, 2015,7(03):19-23.
[5]
Cao Hong. Interpretation of zero-carbon buildings. Industrial Architecture, 2010,40 (3):20.
[6]
Sun Yongle. Carbon balance of life cycle of reinforced concrete structures in Xi 'an. Xi'an University of Architecture and Technology, 2015.
[7]
Li Yang. Application research of green concrete in Shanghai World Expo project. Shanghai Construction Science and Technology, 2009, (02):60-61+67.
[8]
Action Plan for Carbon Peak by 2030. State Council. 2020.01-03.
[9]
Zhi Jun Xu, Yao Zhong Zhao. Current development and prospect of green building. Architectural Technology, 2012,43(04):300-304.
[10]
Zhang Xiaocun. Research on Quantitative Analysis and Calculation of Carbon Emission in Building and Evaluation Method of Low-carbon Building Structure. Harbin: Harbin Institute of Technology.
[11]
Chen Xu, Li Shaochun et al. Preparation and performance of green and low-carbon high-performance concrete. New Building Materials, 2020,47(09):155-158.
[12]
Xu Ximon. Analysis of building carbon footprint based on life cycle theory. Environmental Science Guide, 2021,40(02):28-34.
[13]
Promote green construction and accelerate the transformation and upgrading of the industry [N]. China Building Materials News, November 10,2021 (001).
[14]
Dong Hengrui, Liu Jun, Qin Yanyao et al. Thoughts on moving from green buildings and passive buildings to zero-carbon buildings. Chongqing Architecture, 2021,20(10):19-22.
[15]
Wang Yayun. Prefabricated buildings lead the future development of the construction industry. Xinjiang Daily (Han), 2021-12-07 (007).
Download PDF
Innovation Series: Advanced Science, ISSN 2938-9933.