When a ball on a rope swings in a circle, is there both centripetal force and tension force?Is it possible to whirl a point mass (attacted to a string) around in a horizontal circular motion *above* my hand?Can we define tension in a string as the reactive force produced in a string being pulled at both ends?Why doesn't a spinning object in the air fall?How is direction of static friction not opposite in direction but perpendicular when dealing with centripetal forces?Why is the tension between two masses connected by a rope and undergoing a force along the direction of the rope less than that force?Centripetal force equals weight in horizontal circular motion?Static Friction and Centripetal Force for woman attached to spinning discTethered ball - Centripetal forceDirection of tension in a vertical circular motion confusionWhen calculating centripetal force, do we ignore non-radial or tangential forces
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When a ball on a rope swings in a circle, is there both centripetal force and tension force?
Is it possible to whirl a point mass (attacted to a string) around in a horizontal circular motion *above* my hand?Can we define tension in a string as the reactive force produced in a string being pulled at both ends?Why doesn't a spinning object in the air fall?How is direction of static friction not opposite in direction but perpendicular when dealing with centripetal forces?Why is the tension between two masses connected by a rope and undergoing a force along the direction of the rope less than that force?Centripetal force equals weight in horizontal circular motion?Static Friction and Centripetal Force for woman attached to spinning discTethered ball - Centripetal forceDirection of tension in a vertical circular motion confusionWhen calculating centripetal force, do we ignore non-radial or tangential forces
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I'm learning about centripetal force and I was shown a scenario where a man was spinning a rope attached to a ball over his head. There's a centripetal acceleration toward the center and therefore a force must be acting in the same direction as the centripetal acceleration — the centripetal force. But I wonder if that's considered a tension force as well. Is it?
newtonian-mechanics forces string centripetal-force
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add a comment |
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I'm learning about centripetal force and I was shown a scenario where a man was spinning a rope attached to a ball over his head. There's a centripetal acceleration toward the center and therefore a force must be acting in the same direction as the centripetal acceleration — the centripetal force. But I wonder if that's considered a tension force as well. Is it?
newtonian-mechanics forces string centripetal-force
$endgroup$
7
$begingroup$
Note that your question is essentially equivalent to "is it a horizontal force or a tension force?"
$endgroup$
– Aaron Stevens
Jul 20 at 5:44
add a comment |
$begingroup$
I'm learning about centripetal force and I was shown a scenario where a man was spinning a rope attached to a ball over his head. There's a centripetal acceleration toward the center and therefore a force must be acting in the same direction as the centripetal acceleration — the centripetal force. But I wonder if that's considered a tension force as well. Is it?
newtonian-mechanics forces string centripetal-force
$endgroup$
I'm learning about centripetal force and I was shown a scenario where a man was spinning a rope attached to a ball over his head. There's a centripetal acceleration toward the center and therefore a force must be acting in the same direction as the centripetal acceleration — the centripetal force. But I wonder if that's considered a tension force as well. Is it?
newtonian-mechanics forces string centripetal-force
newtonian-mechanics forces string centripetal-force
edited Jul 20 at 12:49
knzhou
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53.6k13 gold badges151 silver badges261 bronze badges
asked Jul 19 at 22:36
Austin GaeAustin Gae
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7
$begingroup$
Note that your question is essentially equivalent to "is it a horizontal force or a tension force?"
$endgroup$
– Aaron Stevens
Jul 20 at 5:44
add a comment |
7
$begingroup$
Note that your question is essentially equivalent to "is it a horizontal force or a tension force?"
$endgroup$
– Aaron Stevens
Jul 20 at 5:44
7
7
$begingroup$
Note that your question is essentially equivalent to "is it a horizontal force or a tension force?"
$endgroup$
– Aaron Stevens
Jul 20 at 5:44
$begingroup$
Note that your question is essentially equivalent to "is it a horizontal force or a tension force?"
$endgroup$
– Aaron Stevens
Jul 20 at 5:44
add a comment |
6 Answers
6
active
oldest
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$begingroup$
The centripetal force can be made up of any type of force, whether gravitational, friction or tension. The centripetal force is not a force type, it is just a net force that is always radial. So it is a sum of forces, no matter the type.
So yes, it is a tension force. It just acts as a centripetal force.
$endgroup$
add a comment |
$begingroup$
The centripetal force is the force required to keep the ball rotating in a circle, by providing it the necessary centripetal acceleration. In this case this force is the tension in the rope, but of course in general the centripetal acceleration can be provided by forces of a different nature.
$endgroup$
add a comment |
$begingroup$
You might find it easier to avoid the term centripetal force and just state that there is a force due to the string (tension) which is producing a centripetal acceleration.
There are times when two (or more) forces are acting on a body, eg on a banked track, and the net force on the body in a particular direction produces a centripetal acceleration.
In such cases using the term centripetal force can be misleading as it might be thought to imply that there is only one force causing the centripetal acceleration.
$endgroup$
add a comment |
$begingroup$
The tension in the rope is what provides the centripetal force.
Tension exists simply because the rope or string that you're whirling around is extended.
The adjective "centripetal" describes the direction of the force. Centripetal means "center seeking". The origin of the force may be gravitational (earth - sun system) or electromagnetic (e.g. nucleus attracting electrons) but the direction has to be towards the center.
$endgroup$
add a comment |
$begingroup$
Firstly get clear what is centripetal force about. It means nothing, it is just the resultant of all forces during circular motion and this resultant force is known as centripetal force.
Now, you are saying that tension and centripetal force is same in your case or not, the answer is very simple that because the resultant vectors of all forces in your scenario are in direction of tension force thus the centripetal force seems to be in direction of tension force.
$endgroup$
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
add a comment |
$begingroup$
You need to remember that there is nothing called a separate "centripetal force". Any force can be the centripetal force in a circular motion. So, in your case, the centripetal force is provided by the tension in the string. When a biker goes around a Loop of Death in a circus, the normal reaction is what gives the centripetal acceleration.
So, when you say, "But I wonder if that's considered a tension force as well. Is it?", it is more so the case that the tension force is considered the centripetal force here, and not the other way around.
Hope this helps!
New contributor
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6 Answers
6
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6 Answers
6
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$begingroup$
The centripetal force can be made up of any type of force, whether gravitational, friction or tension. The centripetal force is not a force type, it is just a net force that is always radial. So it is a sum of forces, no matter the type.
So yes, it is a tension force. It just acts as a centripetal force.
$endgroup$
add a comment |
$begingroup$
The centripetal force can be made up of any type of force, whether gravitational, friction or tension. The centripetal force is not a force type, it is just a net force that is always radial. So it is a sum of forces, no matter the type.
So yes, it is a tension force. It just acts as a centripetal force.
$endgroup$
add a comment |
$begingroup$
The centripetal force can be made up of any type of force, whether gravitational, friction or tension. The centripetal force is not a force type, it is just a net force that is always radial. So it is a sum of forces, no matter the type.
So yes, it is a tension force. It just acts as a centripetal force.
$endgroup$
The centripetal force can be made up of any type of force, whether gravitational, friction or tension. The centripetal force is not a force type, it is just a net force that is always radial. So it is a sum of forces, no matter the type.
So yes, it is a tension force. It just acts as a centripetal force.
answered Jul 20 at 0:15
AlazAlaz
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67717 bronze badges
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$begingroup$
The centripetal force is the force required to keep the ball rotating in a circle, by providing it the necessary centripetal acceleration. In this case this force is the tension in the rope, but of course in general the centripetal acceleration can be provided by forces of a different nature.
$endgroup$
add a comment |
$begingroup$
The centripetal force is the force required to keep the ball rotating in a circle, by providing it the necessary centripetal acceleration. In this case this force is the tension in the rope, but of course in general the centripetal acceleration can be provided by forces of a different nature.
$endgroup$
add a comment |
$begingroup$
The centripetal force is the force required to keep the ball rotating in a circle, by providing it the necessary centripetal acceleration. In this case this force is the tension in the rope, but of course in general the centripetal acceleration can be provided by forces of a different nature.
$endgroup$
The centripetal force is the force required to keep the ball rotating in a circle, by providing it the necessary centripetal acceleration. In this case this force is the tension in the rope, but of course in general the centripetal acceleration can be provided by forces of a different nature.
answered Jul 19 at 23:04
PukPuk
9911 silver badge9 bronze badges
9911 silver badge9 bronze badges
add a comment |
add a comment |
$begingroup$
You might find it easier to avoid the term centripetal force and just state that there is a force due to the string (tension) which is producing a centripetal acceleration.
There are times when two (or more) forces are acting on a body, eg on a banked track, and the net force on the body in a particular direction produces a centripetal acceleration.
In such cases using the term centripetal force can be misleading as it might be thought to imply that there is only one force causing the centripetal acceleration.
$endgroup$
add a comment |
$begingroup$
You might find it easier to avoid the term centripetal force and just state that there is a force due to the string (tension) which is producing a centripetal acceleration.
There are times when two (or more) forces are acting on a body, eg on a banked track, and the net force on the body in a particular direction produces a centripetal acceleration.
In such cases using the term centripetal force can be misleading as it might be thought to imply that there is only one force causing the centripetal acceleration.
$endgroup$
add a comment |
$begingroup$
You might find it easier to avoid the term centripetal force and just state that there is a force due to the string (tension) which is producing a centripetal acceleration.
There are times when two (or more) forces are acting on a body, eg on a banked track, and the net force on the body in a particular direction produces a centripetal acceleration.
In such cases using the term centripetal force can be misleading as it might be thought to imply that there is only one force causing the centripetal acceleration.
$endgroup$
You might find it easier to avoid the term centripetal force and just state that there is a force due to the string (tension) which is producing a centripetal acceleration.
There are times when two (or more) forces are acting on a body, eg on a banked track, and the net force on the body in a particular direction produces a centripetal acceleration.
In such cases using the term centripetal force can be misleading as it might be thought to imply that there is only one force causing the centripetal acceleration.
answered Jul 20 at 6:02
FarcherFarcher
54.7k3 gold badges44 silver badges116 bronze badges
54.7k3 gold badges44 silver badges116 bronze badges
add a comment |
add a comment |
$begingroup$
The tension in the rope is what provides the centripetal force.
Tension exists simply because the rope or string that you're whirling around is extended.
The adjective "centripetal" describes the direction of the force. Centripetal means "center seeking". The origin of the force may be gravitational (earth - sun system) or electromagnetic (e.g. nucleus attracting electrons) but the direction has to be towards the center.
$endgroup$
add a comment |
$begingroup$
The tension in the rope is what provides the centripetal force.
Tension exists simply because the rope or string that you're whirling around is extended.
The adjective "centripetal" describes the direction of the force. Centripetal means "center seeking". The origin of the force may be gravitational (earth - sun system) or electromagnetic (e.g. nucleus attracting electrons) but the direction has to be towards the center.
$endgroup$
add a comment |
$begingroup$
The tension in the rope is what provides the centripetal force.
Tension exists simply because the rope or string that you're whirling around is extended.
The adjective "centripetal" describes the direction of the force. Centripetal means "center seeking". The origin of the force may be gravitational (earth - sun system) or electromagnetic (e.g. nucleus attracting electrons) but the direction has to be towards the center.
$endgroup$
The tension in the rope is what provides the centripetal force.
Tension exists simply because the rope or string that you're whirling around is extended.
The adjective "centripetal" describes the direction of the force. Centripetal means "center seeking". The origin of the force may be gravitational (earth - sun system) or electromagnetic (e.g. nucleus attracting electrons) but the direction has to be towards the center.
edited Jul 21 at 9:21
answered Jul 20 at 6:47
saadsaad
17210 bronze badges
17210 bronze badges
add a comment |
add a comment |
$begingroup$
Firstly get clear what is centripetal force about. It means nothing, it is just the resultant of all forces during circular motion and this resultant force is known as centripetal force.
Now, you are saying that tension and centripetal force is same in your case or not, the answer is very simple that because the resultant vectors of all forces in your scenario are in direction of tension force thus the centripetal force seems to be in direction of tension force.
$endgroup$
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
add a comment |
$begingroup$
Firstly get clear what is centripetal force about. It means nothing, it is just the resultant of all forces during circular motion and this resultant force is known as centripetal force.
Now, you are saying that tension and centripetal force is same in your case or not, the answer is very simple that because the resultant vectors of all forces in your scenario are in direction of tension force thus the centripetal force seems to be in direction of tension force.
$endgroup$
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
add a comment |
$begingroup$
Firstly get clear what is centripetal force about. It means nothing, it is just the resultant of all forces during circular motion and this resultant force is known as centripetal force.
Now, you are saying that tension and centripetal force is same in your case or not, the answer is very simple that because the resultant vectors of all forces in your scenario are in direction of tension force thus the centripetal force seems to be in direction of tension force.
$endgroup$
Firstly get clear what is centripetal force about. It means nothing, it is just the resultant of all forces during circular motion and this resultant force is known as centripetal force.
Now, you are saying that tension and centripetal force is same in your case or not, the answer is very simple that because the resultant vectors of all forces in your scenario are in direction of tension force thus the centripetal force seems to be in direction of tension force.
edited Jul 20 at 16:13
xray0
4783 silver badges16 bronze badges
4783 silver badges16 bronze badges
answered Jul 20 at 7:10
Aziz LokhandwalaAziz Lokhandwala
115 bronze badges
115 bronze badges
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
add a comment |
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
The resultant of all the forces is not in the direction of the tension force in the OP's situation. You forgot about the weight of the ball.
$endgroup$
– alephzero
Jul 20 at 18:57
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
$begingroup$
@alephzero you must checkout my explanation properly and also see this figure drive.google.com/file/d/1h6c3ww7um89lvMHQEitQcZUcAUvdzYns/…
$endgroup$
– Aziz Lokhandwala
Jul 21 at 4:33
add a comment |
$begingroup$
You need to remember that there is nothing called a separate "centripetal force". Any force can be the centripetal force in a circular motion. So, in your case, the centripetal force is provided by the tension in the string. When a biker goes around a Loop of Death in a circus, the normal reaction is what gives the centripetal acceleration.
So, when you say, "But I wonder if that's considered a tension force as well. Is it?", it is more so the case that the tension force is considered the centripetal force here, and not the other way around.
Hope this helps!
New contributor
$endgroup$
add a comment |
$begingroup$
You need to remember that there is nothing called a separate "centripetal force". Any force can be the centripetal force in a circular motion. So, in your case, the centripetal force is provided by the tension in the string. When a biker goes around a Loop of Death in a circus, the normal reaction is what gives the centripetal acceleration.
So, when you say, "But I wonder if that's considered a tension force as well. Is it?", it is more so the case that the tension force is considered the centripetal force here, and not the other way around.
Hope this helps!
New contributor
$endgroup$
add a comment |
$begingroup$
You need to remember that there is nothing called a separate "centripetal force". Any force can be the centripetal force in a circular motion. So, in your case, the centripetal force is provided by the tension in the string. When a biker goes around a Loop of Death in a circus, the normal reaction is what gives the centripetal acceleration.
So, when you say, "But I wonder if that's considered a tension force as well. Is it?", it is more so the case that the tension force is considered the centripetal force here, and not the other way around.
Hope this helps!
New contributor
$endgroup$
You need to remember that there is nothing called a separate "centripetal force". Any force can be the centripetal force in a circular motion. So, in your case, the centripetal force is provided by the tension in the string. When a biker goes around a Loop of Death in a circus, the normal reaction is what gives the centripetal acceleration.
So, when you say, "But I wonder if that's considered a tension force as well. Is it?", it is more so the case that the tension force is considered the centripetal force here, and not the other way around.
Hope this helps!
New contributor
New contributor
answered 22 hours ago
Oishika ChaudhuryOishika Chaudhury
472 bronze badges
472 bronze badges
New contributor
New contributor
add a comment |
add a comment |
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$begingroup$
Note that your question is essentially equivalent to "is it a horizontal force or a tension force?"
$endgroup$
– Aaron Stevens
Jul 20 at 5:44