Free vibration analysis of functionally graded size-dependent nanobeam

Faculty Engineering Year: 2012
Type of Publication: ZU Hosted Pages:
Authors:
Journal: Applied Mathematics and Computation international Volume:
Keywords : Free vibration analysis , functionally graded size-dependent    
Abstract:
This paper presents free vibration analysis of functionally graded (FG) size-dependent nanobeams using finite element method. The size-dependent FG nanobeam is investigated on the basis of the nonlocal continuum model. The nonlocal elastic
   
     
 
       

Author Related Publications

  • Samer Abdelrahman Mohamed Emam, "Exploiting the subharmonic parametric resonances of a buckled beam for vibratory energy harvesting", Springer دولي, 2018 More
  • Samer Abdelrahman Mohamed Emam, "Static and stability analysis of nonlocal functionally graded nanobeams", i, 2013 More
  • Samer Abdelrahman Mohamed Emam, "Approximate analytical solutions for the nonlinear free vibrations of composite beams in buckling", international, 2013 More
  • Samer Abdelrahman Mohamed Emam, "Nonlinear response of buckled beams to 1:1 and 3:1 internal resonances", international, 2013 More
  • Samer Abdelrahman Mohamed Emam, "A general nonlocal nonlinear model for buckling of nanobeams", international, 2013 More

Department Related Publications

  • Tamer Ali Abdella Sebaee, "AN EXPERIMENTAL STUDY ON THE BOLTED JOINT CONNECTIONS IN GFRE [0/90]2S LAMINATES", Minoufiya University, 2009 More
  • Marwa Ahmed Abdelbaky Salam , "Monotonic properties of unidirectional glass fiber (U)/random glass fiber (R)/epoxy hybrid composites", ScienceDirect, 2010 More
  • Abdelaziz Ibrahim Salma , "Some factors influencing the power, surface roughness and wheel wear in face milling", مؤتمر علمى دولى, 1991 More
  • Abdelaziz Ibrahim Salma , "On the mechanical wear behavior of some aluminum alloys", مؤتمر علمى محلى, 1989 More
  • Abdelaziz Ibrahim Salma , "Computer aided to the bending analysis of a cantilever plate using all free element", مؤتمر علمى دولى, 1982 More
Tweet