Tyrolean Traverse/Static Equilibrium Problem

  • Thread starter ConstableZiM
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In summary, a mountain-climbing technique called the "Tyrolean traverse" involves traversing a rope anchored on both ends. A basic understanding of physics is crucial for safety, as the technique generates tremendous forces in the rope and anchors. To ensure safety, a recommended safety factor of 10 is used, and the length of rope used must allow for some "sag." In order for a 72-kg climber at the center of a Tyrolean traverse, spanning a 25-m chasm, to be within the recommended safety range, the minimum distance x that the rope must sag is 1.5 meters. The equation used to calculate this is 2TSin(Theta) = mg, where T represents
  • #1
ConstableZiM
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Homework Statement


Please read the WHOLE post before replying, because I don't want the answer, but how to obtain one of the equations.

A mountain-climbing technique called the "Tyrolean traverse," a rope is anchored on both ends (to rocks or strong trees) across a deep chasm, and then a climber traverses the rope while attached by a sling as in the figure (Intro 1 figure) . This technique generates tremendous forces in the rope and anchors, so a basic understanding of physics is crucial for safety. A typical climbing rope can undergo a tension force of perhaps 28 kN before breaking, and a "safety factor" of 10 is usually recommended. The length of rope used in the Tyrolean traverse must allow for some "sag" to remain in the recommended safety range.

Consider a 72-kg climber at the center of a Tyrolean traverse, spanning a 25-m chasm. To be within its recommended safety range, what minimum distance x must the rope sag?

Homework Equations



[tex]
2Tsin\vartheta-mg = \Sigma
[/tex]F

The Attempt at a Solution


I don't have a problem with the question itself, I have a problem with understanding one of the equations, 2TSin(Theta) = mg... Why is the TSin(Theta) multiplied by 2? I can't conceptually comprehend that... if the line can take only 2900 Newtons, then multiplying it by two means we are putting a load of 4800 Newtons on the whole line?...

The answer is 1.5 meters
 
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  • #2
The tensions in the two sides would be the same if the weight is at the center.
 

Related to Tyrolean Traverse/Static Equilibrium Problem

What is a Tyrolean Traverse/Static Equilibrium Problem?

A Tyrolean Traverse/Static Equilibrium Problem is a physics problem that involves the analysis of forces acting on a system in static equilibrium. It is commonly used in rock climbing and other outdoor activities to determine the tension in a rope or cable needed to support a person's weight.

What are the key principles involved in solving a Tyrolean Traverse/Static Equilibrium Problem?

The key principles involved in solving a Tyrolean Traverse/Static Equilibrium Problem include understanding the concept of equilibrium, which states that the sum of all forces acting on a stationary object must equal zero, and applying the laws of motion, specifically Newton's second and third laws.

How do you determine the tension in a rope or cable in a Tyrolean Traverse/Static Equilibrium Problem?

The tension in a rope or cable in a Tyrolean Traverse/Static Equilibrium Problem can be determined by setting up a free body diagram and analyzing the forces acting on the system. The tension in the rope can then be found by using the equations of equilibrium and solving for the unknown variables.

What are some common misconceptions about solving a Tyrolean Traverse/Static Equilibrium Problem?

Some common misconceptions about solving a Tyrolean Traverse/Static Equilibrium Problem include assuming that the tension in the rope is equal to the person's weight, neglecting the weight of the rope itself, and not considering the effects of friction on the system.

How does the angle of the rope affect the tension in a Tyrolean Traverse/Static Equilibrium Problem?

The angle of the rope can greatly affect the tension in a Tyrolean Traverse/Static Equilibrium Problem. As the angle increases, the horizontal component of the tension decreases, requiring a larger vertical component to maintain equilibrium. This means that the greater the angle, the more tension is needed in the rope to support the same weight.

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