Conceptual Reference Database for Building Envelope Research Prev
Next

Finite element analysis of temperature-induced deflection of vacuum glazing

Wullschleger, L., Manz, H. and Wakili, K. G.
2009
Construction and Building Materials, 23(3): 1378-1388
Vacuum glazing; Thermal expansion; Finite element method; Deformation analysis


Wullschleger, L., Manz, H. and Wakili, K. G., (2009), "Finite element analysis of temperature-induced deflection of vacuum glazing", Construction and Building Materials, 23(3): 1378-1388.
Abstract:
Mechanical loading of vacuum glazing mainly results from atmospheric pressure and temperature differences between inside and outside air, which induce a differential thermal expansion of the internal and external glass panes. These are separated by a narrow evacuated gap of only a few tenths of a millimeter. This paper presents the results of static non-linear finite element analyses for vacuum glazing with surfaces up to and glass pane thickness between 3 and 10 mm. These analyses were conducted using three different styles of finite element modeling for vacuum glazing. The non-linear deformation behavior and the particular deflection patterns observed for large-area vacuum glazing were investigated for two basic sets of boundary conditions. The paper further examines parameter studies carried out to assess the impact of the support pillars, which act as spacers between the glass panes, on the transverse shear stiffness of the glazing and on the overall glazing deflection.

This publication in whole or part may be found online at: This link has not been checked.here.

Related Concepts


Author Information and Other Publications Notes
Wullschleger, L.
     
Manz, H.
  1. Available remodeling simulation for a BIPV as a shading device
  2. Empirical validations of solar gain models for a glazing unit with exterior and interior blind assemblies
  3. On minimizing heat transport in architectural glazing
  4. Temperature-driven single-sided ventilation through a large rectangular opening, review on wind driven ventilation techniques  
Wakili, K. G.
  1. A humidity dependent vapour retarder in non-ventilated flat roofs. in situ measurements and numerical analysis
  2. Driving potentials of heat and mass transport in porous building materials: a comparison between general linear, thermodynamic and micromechanical derivation schemes  



CRDBER, at CBS, BCEE, ENCS, Concordia,