Reprint

Mechanics of Corrugated and Composite Materials

Edited by
May 2022
318 pages
  • ISBN978-3-0365-4314-7 (Hardback)
  • ISBN978-3-0365-4313-0 (PDF)

This book is a reprint of the Special Issue Mechanics of Corrugated and Composite Materials that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

Corrugated and composite materials can significantly outperform traditional materials. Nowadays, such materials have gained more and more attention and application not only in theoretical, experimental or numerical scientific studies but also in daily industrial problems, which require innovative solutions. The specific geometry of a corrugated layer, or the combination of two or more materials in the structures allows the mechanical properties with specific features favorable for use in a specific engineering problem to be obtained. For example, due to the specific compositions of the corrugated materials, the ratio of the load capacity to the weight of the sections is much higher than that of traditional solid sections. Therefore, such materials should be used when the weight of the structure must be optimized or the structure must have openwork geometry. Among others, the composites can be employed for a variety of purposes, for example, in corrugated boards in the packaging industry; in soft-core sandwich panels, window frames in structural engineering; in wings in commercial, civilian and military aerospace applications; in the vehicle and its equipment devices, including, panels, frames or other interior components; in fans, grating, tanks, ducts and pumps in environmental installations; in electrical engineering in switchgear, motor controls, control system components or circuit breakers; and in many more. This Special Issue “Mechanics of Corrugated and Composite Materials” addresses selected knowledge gaps and aids advance in this area.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
corrugated board; numerical homogenization; strain energy equivalence; finite element method; plate stiffness properties; shell structures; transverse shear; corrugated cardboard; edge crush test; orthotropic elasticity; digital image correlation; composites; sandwich panel; composite structural insulated panel; magnesium oxide board; bimodular material; experimental mechanics; computational mechanics; finite element analysis; corrugated cardboard; numerical homogenization; strain energy equivalence; perforation; creasing; flexural stiffness; torsional stiffness; sandwich panels; local instability; strain energy; wrinkling; orthotropic core; corrugated board; box strength estimation; packaging flaps; crease line shifting; corrugated cardboard; edge crush test; orthotropic elasticity; digital image correlation; compressive stiffness; corrugated box; compression strength; pallet; unit load; unit load optimization; composite sandwich structures; thin-walled structures; anisotropic material; corrugated core; homogenization approach; first-order shear deformation theory; FSDT; FEM simulation; finite element analysis; design process; aluminium-timber structures; laminated veneer lumber (LVL); toothed plate; screwed connection; shear connection; push-out test; honeycomb panels; starch; impregnation; climatic conditions; strength; stiffness; energy absorption; homogenization method; lattice materials; periodic cellular materials; multiscale mechanics; aluminium powder; detonation; explosive; combustion; oxidation; equation of state; n/a; localizing gradient damage; gradient activity function; tension; concrete cracking; impact load; dynamics; finite element method; air operation safety; flying risk; risk management; unmanned aerial vehicles