PROBLEM 02 A block having a mass of 5 kg is tied to a cable as shown. The cable passes through a smooth drum at D. Another block W is hung as shown with a mass of 4.5 kg. The coefficients of static and kinetic friction between the block and the plane is 0.2 and 0.1, respectively. Compute for the following: D W 45° 6. Draw the free body diagram in cach block. 7. Determine the normal force (N) developed by the incline on the block. 8. Determine the frictional force (N) by equilibrium developed on the contacting surfaces of the incline and the block.
PROBLEM 02 A block having a mass of 5 kg is tied to a cable as shown. The cable passes through a smooth drum at D. Another block W is hung as shown with a mass of 4.5 kg. The coefficients of static and kinetic friction between the block and the plane is 0.2 and 0.1, respectively. Compute for the following: D W 45° 6. Draw the free body diagram in cach block. 7. Determine the normal force (N) developed by the incline on the block. 8. Determine the frictional force (N) by equilibrium developed on the contacting surfaces of the incline and the block.
Chapter2: Loads On Structures
Section: Chapter Questions
Problem 1P
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Hi, please help me answer Question No. 2 only, with solutions. Thank you.
QUESTION NO. 2
QUESTION NO. 2
QUESTION NO. 2
![PROBLEM 01
PROBLEM 02
A block having a mass of 5 kg is tied to a cable as
shown. The cable passes through a smooth drum at
D. Another block W is hung as shown with a mass of
4.5 kg. The coefficients of static and kinetic friction
between the block and the plane is 0.2 and 0.1,
respectively. Compute for the following:
The crate shown has a mass of m = 15 kg and is
pulled by the rope as shown. If the coefficients of
static and kinetic friction are ug = 0.30 and ug =
0.20, provide answers for the following. Set 0 =
30°.
D
W
1. Draw the free-body diagram of the system.
45°
2. Determine the normal force (N) developed by
the floor on the crate.
6. Draw the free body diagram in each block.
7. Determine the normal force (N) developed by
3. Determine the frictional force (N) by
equilibrium developed on the contacting
the incline on the block.
surfaces of the floor and the crate.
8. Determine the frictional force (N) by
equilibrium developed on the contacting
4. Determine the frictional force (N) developed
at the moment of the verge of sliding.
surfaces of the incline and the block.
5. Determine the actual frictional force (N)
produced by the contacting surfaces of the
9. Determine the frictional force (N) developed
at the moment of the verge of sliding.
floor and the crate. State whether the crate
will slide or not.
10. Determine the actual frictional force (N)
produced by the contacting surfaces of the
incline and the block. State whether the block
will slide up or down or whether the block
will not slide.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fb97a066a-8e2b-4fc3-b2b3-5e87b92cf578%2F8106eaa5-3cfa-49cf-9bc2-b3ed7546cb01%2F00wideo_processed.jpeg&w=3840&q=75)
Transcribed Image Text:PROBLEM 01
PROBLEM 02
A block having a mass of 5 kg is tied to a cable as
shown. The cable passes through a smooth drum at
D. Another block W is hung as shown with a mass of
4.5 kg. The coefficients of static and kinetic friction
between the block and the plane is 0.2 and 0.1,
respectively. Compute for the following:
The crate shown has a mass of m = 15 kg and is
pulled by the rope as shown. If the coefficients of
static and kinetic friction are ug = 0.30 and ug =
0.20, provide answers for the following. Set 0 =
30°.
D
W
1. Draw the free-body diagram of the system.
45°
2. Determine the normal force (N) developed by
the floor on the crate.
6. Draw the free body diagram in each block.
7. Determine the normal force (N) developed by
3. Determine the frictional force (N) by
equilibrium developed on the contacting
the incline on the block.
surfaces of the floor and the crate.
8. Determine the frictional force (N) by
equilibrium developed on the contacting
4. Determine the frictional force (N) developed
at the moment of the verge of sliding.
surfaces of the incline and the block.
5. Determine the actual frictional force (N)
produced by the contacting surfaces of the
9. Determine the frictional force (N) developed
at the moment of the verge of sliding.
floor and the crate. State whether the crate
will slide or not.
10. Determine the actual frictional force (N)
produced by the contacting surfaces of the
incline and the block. State whether the block
will slide up or down or whether the block
will not slide.
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