The idea in having a more massive pendulum is so that it is less affected by air resistance. If two pendulums are set up and are indetical in every way except the mass of one of them, if they are both swung in air from the same starting height, the more massive one will swing for a longer period of time. The more mass a pendulum has, the more energy it takes to lift it to a given starting height. That energy is expressed in its motion when it is released. A very light pendulum of the same dimentions and in the same set up will not require very much energy to be raised to that same starting height as the heavier one. The air resistance the both pendulums encounter will be the same (assuming identical set ups), but that energy loss due to drag will represent a much smaller fraction of the energy of the pendulum with more mass. That means the more massive pendulum will be less affected. Picture a pendulum made by attaching a ping pong ball to a string. Now picture the same set up with a ball the same size, but made out of wood. Or even steel. More mass equals less effect due to air resistance.
The weight of the riders does not affect the amount the ride can lift since the system is designed to lift and carry the combined weight of the riders and cars. Air resistance is a factor that the ride must overcome to lift riders into the air.
The internal composition or material of an object does not affect air resistance. Air resistance is mainly determined by an object's size, shape, and speed when moving through air.
The feature characteristic of an object that does not affect air resistance is the object's mass. Air resistance is determined by the object's shape, size, and speed through the air, but not its mass.
Yes, weight does affect drag. Heavier objects experience more drag than lighter objects because they displace more air as they move through it, creating more resistance. Increasing weight can increase drag, making it harder to move through a fluid like air or water.
The variables that affect air resistance include the speed of an object moving through the air, the surface area and shape of the object, the density of the air, and the viscosity of the air. Additionally, factors such as the altitude of the object and any obstacles in its path can also influence air resistance.
If you ignore air resistance, weight has no effect at all.
The weight of the riders does not affect the amount the ride can lift since the system is designed to lift and carry the combined weight of the riders and cars. Air resistance is a factor that the ride must overcome to lift riders into the air.
air resistance affects
Weight of an object is usually the downward force that it exerts which results in its motion when an external force is absent to balance it off completely. (free fall) or partially as in our case of air resistance in the question.Air resistance offers a force , or pressure (force per area) on the object that falls and effectively reduces the Weight of an object to some extent..Air resistance affects weight and it is of little importance to discuss the vice versa
The internal composition or material of an object does not affect air resistance. Air resistance is mainly determined by an object's size, shape, and speed when moving through air.
Air resistance causes friction and slows an object.
Fluid density, relative velocity, and object shape affect air resistance.
The feature characteristic of an object that does not affect air resistance is the object's mass. Air resistance is determined by the object's shape, size, and speed through the air, but not its mass.
Yes, a man in a parachute with air resistance less than his weight will accelerate downwards. The net force acting on him is the difference between his weight and the air resistance, resulting in a downward acceleration. As he descends, the air resistance will increase until it equals his weight, at which point he will reach terminal velocity and stop accelerating.
It reduces the acceleration of the falling object due to friction.
Yes, weight does affect drag. Heavier objects experience more drag than lighter objects because they displace more air as they move through it, creating more resistance. Increasing weight can increase drag, making it harder to move through a fluid like air or water.
Air resistance creates friction and slows a falling object.