Engineering mechanics of materialsThis book provides the students of various engineering disciplines with a clear and understandable treatment of the concepts of Mechanics of Materials or Strength of Materials. This subject is concerned with the behavior of deformable bodies when subjected to axial, torsional and flexural loads as well as combinations thereof. It is a 3rd, updated edition of the popular undergraduate level textbook useful for students of mechanical, structural, civil, aeronautical and other engineering disciplines. The book is supplied with problems and a solution manual will be available from the authors. |
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Page 7
y \way wA (y - 10) wB(10) (a) (b) (c) i(ft I .Hft) 1 30 lb +6 + 4 F = axial force (lb) (
tension is positive) (d) FIGURE 1.5 /= h> = applied force intensity f=w (lb/ft) (e)
Now, consider the free-body diagram shown in Fig. 1.5(c): ...
y \way wA (y - 10) wB(10) (a) (b) (c) i(ft I .Hft) 1 30 lb +6 + 4 F = axial force (lb) (
tension is positive) (d) FIGURE 1.5 /= h> = applied force intensity f=w (lb/ft) (e)
Now, consider the free-body diagram shown in Fig. 1.5(c): ...
Page 12
1.10 An 18-ft-long rod is suspended as shown in Fig. P1. 10. The unit weights of
each part are wA = 6 lb/ft, wB = 8 lb/ft, and wc = 4 lb/ft. Draw appropriate free-
body diagrams to determine the internal axial forces in each part of the rod. Use
an ...
1.10 An 18-ft-long rod is suspended as shown in Fig. P1. 10. The unit weights of
each part are wA = 6 lb/ft, wB = 8 lb/ft, and wc = 4 lb/ft. Draw appropriate free-
body diagrams to determine the internal axial forces in each part of the rod. Use
an ...
Page 59
(a) A single-story building has column spacings: A = 20 ft, B = 20 ft, C = 30 ft, and
D = 30 ft. Roof loading intensities: Wl = W2 = W3 = W4 = 60 lb/ft2. Columns:
COLWT = 120 lb/ft, STORYHT = 14 ft. Use this information to provide data for the
...
(a) A single-story building has column spacings: A = 20 ft, B = 20 ft, C = 30 ft, and
D = 30 ft. Roof loading intensities: Wl = W2 = W3 = W4 = 60 lb/ft2. Columns:
COLWT = 120 lb/ft, STORYHT = 14 ft. Use this information to provide data for the
...
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Contents
Stress Strain and Their Relationships | 60 |
Stresses and Strains in Axially Loaded Members | 121 |
Torsional Stresses Strains and Rotations | 159 |
Copyright | |
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Common terms and phrases
absolute maximum shear aluminum angle of twist applied Assume axial force axially loaded beam shown bending cantilever beam Castigliano's second theorem column compressive constant coordinate cross section cross-sectional area cylinder deflection deformation depicted in Fig elastic curve equal equation equilibrium Euler EXAMPLE factor of safety FIGURE flexural stress FORTRAN free-body diagram function given by Eq k-ft k-in kN-m lb/ft length longitudinal material maximum in-plane shear maximum shear stress modulus of elasticity Mohr's circle neutral axis normal stress obtained perpendicular plane stress condition plot positive principal centroidal axis principal strains principal stresses radius ratio reactions Refer to Fig respect rotation shear force shear strain shown in Fig simply supported beam slope SOLUTION Solve Problem statically indeterminate steel stress concentration stress element subjected torque torsional uniform load vertical yield strength yield stress zero