Developments on Constitutive Material Model for Architectural Soda-Lime Silicate (SLS) Glass and Evaluation of Key Modelling Parameters

被引:6
作者
Malewski, Andrzej [1 ]
Kozlowski, Marcin [2 ]
Podworny, Jacek [3 ]
Sroda, Marcin [4 ]
Sumelka, Wojciech [1 ]
机构
[1] Poznan Univ Tech, Inst Struct Anal, PL-61138 Poznan, Poland
[2] Silesian Tech Univ, Dept Struct Engn, PL-44100 Gliwice, Poland
[3] Lukasiewicz Res Network, Refractory Mat Lab, Inst Ceram & Bldg Mat, PL-44100 Gliwice, Poland
[4] AGH Univ Sci & Technol, Fac Mat Sci & Ceram, PL-30059 Krakow, Poland
关键词
glass formation; soda-lime silicate glass; numerical modeling; modern architecture; literature review; glass production; TEMPERATURE-DEPENDENCE; STRUCTURAL RELAXATION; RESIDUAL-STRESSES; SUPERCOOLED LIQUIDS; VOLUME RELAXATION; TRANSITION; SIMULATION; VISCOSITY; PLATES; HOLES;
D O I
10.3390/ma16010397
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
Architectural soda-lime silicate glass (SLS) is increasingly taking on complex shapes that require more detailed numerical analysis. Glass modeling is a thoroughly described topic with validated constitutive models. However, these models require a number of precise material parameters for SLS glass, and these are very sensitive to changes in glass composition. The currently available information is based on SLS glass tested in the late 1990s. As a result, most current publications are based on the above data. The object of this work was to analyze the available sources and update the information on selected key parameters for modeling. Using the currently utilized SLS glass in construction, the coefficient of thermal expansion (CTE), glass transition temperature, and the Young's modulus have been experimentally investigated. The updated material parameters will allow for more accurate modeling of the SLS glass currently used in construction, and in consequence will make the prototyping process for glass with complex geometries possible to be transferred from the production stage to the design stage, resulting in shorter production times.
引用
收藏
页数:16
相关论文
共 66 条
[1]  
Aggarwala B.D., 1961, PHYS CHEM GLASSES, V2, P137
[2]   FORMATION OF GLASSES FROM LIQUIDS AND BIOPOLYMERS [J].
ANGELL, CA .
SCIENCE, 1995, 267 (5206) :1924-1935
[3]   Relaxation in glassforming liquids and amorphous solids [J].
Angell, CA ;
Ngai, KL ;
McKenna, GB ;
McMillan, PF ;
Martin, SW .
JOURNAL OF APPLIED PHYSICS, 2000, 88 (06) :3113-3157
[4]  
Bartenev G., 1948, J TECH PHYS, V18, P383
[5]  
Bastian M., 2009, P 3 INT C WEBL SOC M, P361
[6]   Glass Entrance Van Gogh Museum Amsterdam [J].
Bijster, Joeri ;
Noteboom, Chris ;
Eekhout, Mick .
GLASS STRUCTURES & ENGINEERING, 2016, 1 (01) :205-231
[7]   Load-bearing capacity of tempered structural glass [J].
Carré, H ;
Daudeville, L .
JOURNAL OF ENGINEERING MECHANICS-ASCE, 1999, 125 (08) :914-921
[8]   Numerical simulation of soda-lime silicate glass tempering [J].
Carre, H ;
Daudeville, L .
JOURNAL DE PHYSIQUE IV, 1996, 6 (C1) :175-185
[9]   Viscoelastic characterization of seven laminated glass interlayer materials from static tests [J].
Centelles, Xavier ;
Pelayo, Fernandez ;
Lamela-Rey, Maria Jesus ;
Fernandez, A. Ines ;
Salgado-Pizarro, Rebeca ;
Castro, J. Ramon ;
Cabeza, Luisa F. .
CONSTRUCTION AND BUILDING MATERIALS, 2021, 279
[10]   A FDEM Parametric Investigation on the Impact Fracture of Monolithic Glass [J].
Chen, Xiangxiang ;
Chen, Xudong ;
Chan, Andrew ;
Cheng, Yingyao ;
Wang, Hongfan .
BUILDINGS, 2022, 12 (03)