Degrees of Freedom of Connected Compasses

In summary, assuming the compasses are rigidly connected, there will be three degrees of translation, three degrees of rotation, and two compass needle positions. The needles will always be parallel, but their equilibrium positions do not guarantee they will always be parallel. The presence of N-N repulsion and N-S attraction is irrelevant to the number of degrees of freedom. The concept of a "connected pair of compasses" is vague and can yield different results.
  • #1
AbhiFromXtraZ
45
0
What will be the degrees of freedom of a ''Connected pair of compasses''?
 
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  • #2
Assuming they are rigidly connected then three degrees of translation, three degrees of rotation, and two compass needle positions.
 
  • #3
Have you thought about this?
The needles will always be parallel.
This is not a simple concept. There will be N-N repulsion and N-S attraction.
 
  • #4
AbhiFromXtraZ said:
Have you thought about this?

Don't be rude.

AbhiFromXtraZ said:
The needles will always be parallel.

Just because their equilibrium positions are parallel does not mean they will always be parallel.
 
  • #5
AbhiFromXtraZ said:
The needles will always be parallel.
The needles will not always be parallel. I can easily think of scenarios where they are not parallel.

AbhiFromXtraZ said:
There will be N-N repulsion and N-S attraction.
Yes, but that is irrelevant to the question of the number of degrees of freedom.
 
  • #6
I found that a "pair of compasses" refers to the tool for drawing arcs/circles. This question is so vague it's hard to begin to answer it in a coherent manner.
 
  • #7
Really the question is so vague...I'm getting different results every time...
 

What is the concept of degrees of freedom in connected compasses?

The concept of degrees of freedom in connected compasses refers to the number of independent variables or components that can be varied without affecting the overall configuration of the compass. In simple terms, it represents the number of ways the compass can move or rotate while still maintaining its shape and functionality.

How are degrees of freedom calculated in connected compasses?

The number of degrees of freedom in connected compasses can be calculated using the formula F = 3n - c, where n is the number of links or components and c is the number of constraints. This formula is derived from the fact that each link adds three degrees of freedom, while each constraint reduces it by one.

What are the different types of degrees of freedom in connected compasses?

There are three types of degrees of freedom in connected compasses: translational, rotational, and vibrational. Translational degrees of freedom refer to the movement of the compass in a straight line, rotational degrees of freedom refer to the rotation of the compass around a fixed axis, and vibrational degrees of freedom refer to the oscillation or vibration of the compass.

How do degrees of freedom affect the functionality of connected compasses?

The number of degrees of freedom in connected compasses directly affects their ability to move and rotate in different directions. A higher number of degrees of freedom allows for more complex movements and shapes, while a lower number of degrees of freedom limits the range of motion and shape possibilities.

What is the significance of degrees of freedom in practical applications of connected compasses?

The concept of degrees of freedom in connected compasses is crucial in designing and optimizing their functionality for various applications. It allows scientists and engineers to understand the limitations and capabilities of connected compasses and develop innovative solutions for specific tasks and challenges.

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