Using an inextensible string in a force table experiment ensures that the tension in the strings is constant and the angles measured accurately reflect the forces acting on the system. This helps to minimize errors in the experimental data and ensures more precise results.
To calculate the force in a string, you need to consider the tension in the string. This tension can be calculated using the equation (T = F \cdot \cos(\theta)), where (T) is the tension, (F) is the force applied to the string, and (\theta) is the angle between the string and the direction of the force.
A force meter contains a string because when a force is applied to the meter, it causes tension in the string. This tension is then measured by the force meter and displayed as a force reading, allowing for accurate measurement of the applied force.
The tension in the string provides the centripetal force for the mass in uniform circular motion in this experiment. This tension acts towards the center of the circular path, keeping the mass moving in a circular motion instead of following a straight line.
To calculate string tension in a musical instrument, you can use the formula T F L, where T is the tension in the string, F is the force applied to the string, and L is the length of the string between the points where the force is applied. By measuring the force and length of the string, you can calculate the tension.
The pulling force exerted by a string is known as tension. It is a force that arises when an object is attached to the string and is being pulled in opposite directions.
Gravity affects the string by applying a force (dm).(g) on every particle of mass dm. Thereby, it produces a damping effect on the string.
To calculate the force in a string, you need to consider the tension in the string. This tension can be calculated using the equation (T = F \cdot \cos(\theta)), where (T) is the tension, (F) is the force applied to the string, and (\theta) is the angle between the string and the direction of the force.
The tension in any part of the string is equal to the force that pulls the string at the ends (assuming for simplicity that the string is basically weightless).
A force meter contains a string because when a force is applied to the meter, it causes tension in the string. This tension is then measured by the force meter and displayed as a force reading, allowing for accurate measurement of the applied force.
The tension in the string provides the centripetal force for the mass in uniform circular motion in this experiment. This tension acts towards the center of the circular path, keeping the mass moving in a circular motion instead of following a straight line.
unless the string is broken up,the force of pulling will be applied along the continuous part of the string when the string is in full stretched condition.
To calculate string tension in a musical instrument, you can use the formula T F L, where T is the tension in the string, F is the force applied to the string, and L is the length of the string between the points where the force is applied. By measuring the force and length of the string, you can calculate the tension.
The pulling force exerted by a string is known as tension. It is a force that arises when an object is attached to the string and is being pulled in opposite directions.
It depends on the experiment... but the possible constants for such an experiment could be...The mass of the weight at the end of the string (which is independent from the SHM)The length of the stringThe height of the weight when released (not necessarily)Then given that you don't need to put on would be the gravitational force of acceleration 9.81 ms-2, etc.
the force apply on string it vibrate this vibration is called tension of the string
Centripetal force is the force necessary to apply to an object to get it to orbit; like spinning a rock on a string. It you are holding on to the string, you will feel a centrifugal force.
The force of gravity lasted throughout the entire experiment.