36
2 Investigation of Rods in the Elastic Range
3. Beer FP, Johnston ER Jr, DeWolf JT, Mazurek DF (2009) Mechanics of materials. McGrawHill, New York
4. Gere JM, Timoshenko SP (1991) Mechanics of materials. PWS-KENT Publishing Company,
Boston
5. Hibbeler RC (2008) Mechanics of materials. Prentice Hall, Singapore
6. Öchsner A (2014) Elasto-plasticity of frame structure elements: modeling and simulation of
rods and beams. Springer, Berlin
7. Öchsner A (2020) Partial differential equations of classical structural members: a consistent
approach. Springer, Cham
8. Öchsner A (2020) Computational statics and dynamics: an introduction based on the finite
element method. Springer, Singapore
9. Timoshenko S (1940) Strength of materials - part I elementary theory and problems. D. Van
Nostrand Company, New York
10. Timoshenko SP, Goodier JN (1970) Theory of elasticity. McGraw-Hill, New York
2 Investigation of Rods in the Elastic Range
3. Beer FP, Johnston ER Jr, DeWolf JT, Mazurek DF (2009) Mechanics of materials. McGrawHill, New York
4. Gere JM, Timoshenko SP (1991) Mechanics of materials. PWS-KENT Publishing Company,
Boston
5. Hibbeler RC (2008) Mechanics of materials. Prentice Hall, Singapore
6. Öchsner A (2014) Elasto-plasticity of frame structure elements: modeling and simulation of
rods and beams. Springer, Berlin
7. Öchsner A (2020) Partial differential equations of classical structural members: a consistent
approach. Springer, Cham
8. Öchsner A (2020) Computational statics and dynamics: an introduction based on the finite
element method. Springer, Singapore
9. Timoshenko S (1940) Strength of materials - part I elementary theory and problems. D. Van
Nostrand Company, New York
10. Timoshenko SP, Goodier JN (1970) Theory of elasticity. McGraw-Hill, New York