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9. (20%) As shown in figure, a force F is applied on the free end of a cantilever, where the displacement in the free end is \(\delta\) following the force direction. The rigidity factor of the cantilever is defined as the ratio of force by unit displacement. The length L and its width b are measured using two different rulers. The recorded data are listed in following table 1. Table 1. The recorded length L and width b of the cantilever L(cm) 13.98 14.20 13.94 14.16 14.04 14.08 14.00 14.20 13.96 b (cm) 4.09 4.06 4.02 4.07 4.05 4.04 4.07 4.07 4.09 1) Gives the mathematic formula of the rigidity factor of this cantilever. 2) What are the mean and standard deviations of the measured length and width? 3) Suppose the thickness is What is the volume and its uncertainty of this cylinder? 4) When the dimensional tolerance of this cantilever are \(\Delta L = 5\%\) L, \(\Delta h = 5\%\) h, \(\Delta b = 5\%\) b, what is the standard deviation and the simpler average errors of its rigidity factor? 5) Give the generally formula of its natural frequency of this cantilever as shown in figure?

          9. (20%) As shown in figure, a force F is applied on the free end of a cantilever, where the displacement in the free end is \(\delta\) following the force direction. The rigidity factor of the cantilever is defined as the ratio of force by unit displacement. The length L and its width b are measured using two different rulers. The recorded data are listed in following table 1.

Table 1. The recorded length L and width b of the cantilever
L(cm) 13.98 14.20 13.94 14.16 14.04 14.08 14.00 14.20 13.96
b (cm) 4.09 4.06 4.02 4.07 4.05 4.04 4.07 4.07 4.09

1) Gives the mathematic formula of the rigidity factor of this cantilever.
2) What are the mean and standard deviations of the measured length and width?
3) Suppose the thickness is What is the volume and its uncertainty of this cylinder?
4) When the dimensional tolerance of this cantilever are \(\Delta L = 5\%\) L, \(\Delta h = 5\%\) h, \(\Delta b = 5\%\) b, what is the standard deviation and the simpler average errors of its rigidity factor?
5) Give the generally formula of its natural frequency of this cantilever as shown in figure?
        
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9. (20%) As shown in figure, a force F is applied on the free end of a cantilever, where the displacement in the free end is \(\delta\) following the force direction. The rigidity factor of the cantilever is defined as the ratio of force by unit displacement. The length L and its width b are measured using two different rulers. The recorded data are listed in following table 1.

Table 1. The recorded length L and width b of the cantilever
L(cm) 13.98 14.20 13.94 14.16 14.04 14.08 14.00 14.20 13.96
b (cm) 4.09 4.06 4.02 4.07 4.05 4.04 4.07 4.07 4.09

1) Gives the mathematic formula of the rigidity factor of this cantilever.
2) What are the mean and standard deviations of the measured length and width?
3) Suppose the thickness is What is the volume and its uncertainty of this cylinder?
4) When the dimensional tolerance of this cantilever are Δ L = 5% L, Δ h = 5% h, Δ b = 5% b, what is the standard deviation and the simpler average errors of its rigidity factor?
5) Give the generally formula of its natural frequency of this cantilever as shown in figure?

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University Physics with Modern Physics
Hugh D. Young 14th Edition
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20% As shown in figure, a force F is applied on the free end of a cantilever, where the displacement in the free end is following the force direction.The rigidity factor of the cantilever is defined as the ratio of force by unit displacement. The length L and its width b are measured using two different rulers.The recorded data are listed in following table 1 23 Table 1.The recorded length L and width b of the cantilever 14.20 13.94 14.16 14.04 14.08 14.00 14.20 4.06 4.02 4.07 4.05 4.04 4.07 4.07 L(cm) b(cm) 13.98 4.09 13.96 4.09 1 Gives the mathematic formula of the rigidity factor of this cantilever. 2 What are the mean and standard deviations of the measured length and width? 3) Suppose the thickness is What is the volume and its uncertainty of this cylinder? 4When the dimensional tolerance of this cantilever are L=5% L,h=5%h.b=5% b,what is the standard deviation and the simpler average errors of its rigidity factor? 5)Give the generally formula of its natural frequency of this cantilever as shown in figure? Figure for problem 10.
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Transcript

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00:01 Hello students, to solve part a, let fy causes bending shear stress and fx causes compressive stress.
00:12 Now at distance 0 .04 m from fixed end, the bending moment i .e.
00:20 M will be equal to fy 0 .5 -0 .04.
00:27 Now putting the values here we get 740x0 .46.
00:34 Now this will gives bending moment will be 340 .4.
00:42 Now to find maximum bending stress using the formula, maximum bending stress will be equal to m divided by pi by 64 d power 4 into d by 2.
01:00 Now putting the values here we get 32 into m divided by pi d cube.
01:09 Now substituting the values here we get 32 into 340 .4 divided by pi into 0 .1 cube.
01:21 Now after solving this we get bending stress will be equal to 3 .47 mpa.
01:32 Now the beam will bend upwards so upper fiber will be under compression and lower fiber will be in tension.
01:43 So compressive stress, compressive stresses will be minus of fx divided by pi by 4 d square...
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