Solution Found!
An accident victim with a broken leg is being placed in
Chapter 6, Problem 33P(choose chapter or problem)
II An accident victim with a broken leg is being placed in traction. The patient wears a special boot with a pulley attached to the sole. The foot and boot together have a mass of \(4.0 \mathrm{~kg}\), and the doctor has decided to hang a \(6.0 \mathrm{~kg}\) mass from the rope. The boot is held suspended by the ropes, as shown in FIGURE P6.33, and does not touch the bed.
a. Determine the amount of tension in the rope by using Newton's laws to analyze the hanging mass.
b. The net traction force needs
to pull straight out on the leg. What is the proper angle \(\theta\) for the upper rope?
c. What is the net traction force pulling on the leg?
Equation Transcription:
Text Transcription:
4.0 kg
6.0 kg
theta
Questions & Answers
QUESTION:
II An accident victim with a broken leg is being placed in traction. The patient wears a special boot with a pulley attached to the sole. The foot and boot together have a mass of \(4.0 \mathrm{~kg}\), and the doctor has decided to hang a \(6.0 \mathrm{~kg}\) mass from the rope. The boot is held suspended by the ropes, as shown in FIGURE P6.33, and does not touch the bed.
a. Determine the amount of tension in the rope by using Newton's laws to analyze the hanging mass.
b. The net traction force needs
to pull straight out on the leg. What is the proper angle \(\theta\) for the upper rope?
c. What is the net traction force pulling on the leg?
Equation Transcription:
Text Transcription:
4.0 kg
6.0 kg
theta
ANSWER:
Step 1 of 3
a.)
We have to determine the amount of tension in the rope by using Newton's laws to analyze the hanging mass.
The free body diagram for the hanging mass is as shown in the figure below.
The Tension \(\vec{T}\) in the rope can be found from the above free body diagram.
\(T=F_{G}\)
\(T=m g\)
Where,
\(m=\) hanging mass \(=6.0 \mathrm{~kg}\)
\(g=9.80 \mathrm{~m} / \mathrm{s}^{2}\)
Thus,
\(T=(6.0)(9.80)\)
\(=58.8 \mathrm{~N}\)
Therefore, the amount of tension in the rope is \(58.8 \mathrm{~N}\).
b.)