In order to respond to the national goal of “carbon neutralization” and make more rational and effective use of photovoltaic resources, combined with the actual photovoltaic substation project, a fixed adjustable photovoltaic support structure design is designed. By comparing the advantages and disadvantages of the existing support, an innovative optimization design is proposed, and the mechanical structure of the support is analyzed by ANASYS to check the rationality of the design. Saving construction materials and reducing construction costs provide a basis for the reasonable design of photovoltaic power station supports, and also provide a reference for the structural design of fixed and adjustable supports.
GuoJA. Photovoltaic power generation and industry. Beijing Electronics. 2005(4): 2.
4.
Brosens. Oscillations of a rigid heliostat mirror caused by fluctuating wind; 1959.
5.
Hoyer. Wind excited rigid-body vibrations of the heliostat mirror for the proposed Dept. of Defense solar furnace; 1960.
6.
PeterkaJABienkiewiczBHosoyaNCermakJE. Heliostat mean wind load reduction. Energy.1987; 12(3-4): 261-7.
7.
KoterasJR. Analytical studies of a parabolic line concentrator utilizing an aluminum honeycomb support structure and a thin glass reflector laminate. nasa sti/recon technical report n; 1981.
8.
NaeeniNYaghoubiM. Analysis of wind flow around a parabolic collector (1) fluid flow. Renewable Energy.2007; 32(11): 1898-916.
9.
BarkerJMUnderwoodJCShingletonJ. Photovoltaic panel support assembly.
10.
MartinHLudwigS. Assembly system for stands for photovoltaic free area assemblies.
11.
HausnerMSchletterL. ERECTION SYSTEM FOR A PHOTOVOLTAIC OPEN-SPACE INSTALLATION SUPPORT STAND; 2009.
12.
ZhangRG. Study on the application of fixed and adjustable photovoltaic mounts. Solar Energy. 2015(10): 28-31.
13.
ShiJLiAN. Research on the application of stenting seasonally adjustable photovoltaic power generation system. Hydropower Energy Science. 2010(12): 157-8.
14.
JuZH. Economic and technical analysis of adjustable racking system in photovoltaic power plant. Renewable Energy. 2012(6): 4.
15.
MouJ. Analysis of economic benefits of adjustable brackets in photovoltaic power plants. Renewable Energy; 2013.
16.
JiangHHeXJQiJ. On the role of engineering cost in standardized engineering. Construction Knowledge: Academic Journal. 2013(B10): 1.
17.
LiJLuXYChenSY. Research progress of structural optimization design theory and method. Engineering Construction.2007; 39(6): 11.
18.
ChenY. Research on structural optimization design of photovoltaic mounts. Electrical Applications. 2013(17): 5.
19.
ZhaoYJ. Optimization design research of large photovoltaic power plant bracket structure. Urban Construction Theory Research: Electronic Version.2014; 000(035): 2176-7.
20.
LiGQ. Comparative analysis of solar photovoltaic bracket structure scheme. Construction Technology Development. 2020(9): 2.
21.
GuoZP. Exploration of optimal design of photovoltaic bracket structure. Construction Engineering Technology and Design.2016; 32(017): 488,91.
22.
WangCP. Mechanical analysis and design optimization of 76 m2 solar photovoltaic system bracket structure. Jilin University; 2016.
23.
TaoHXWangXDWeiZLDaiHL. Research and application of structural design of new photovoltaic square array bracket. Journal of Baotou Vocational and Technical College.2020; 21(4): 6.
24.
ZhaoYZhongYJ. Optimal design analysis of photovoltaic power generation system. Energy Conservation.2022; 41(4): 3.
25.
ZengYWangKQXieZQMiaoX. Assessment of solar energy resources in Jiangsu Province. Journal of Atmospheric Sciences.2012; 35(6): 658-63.
26.
Department of the Ministry of Housing and Urban-Rural Development of the People’s Republic of China. Building structural load code: GB 50009-2012: Building structural load code: GB 50009-2012; 2012.
