No, it's a class one lever. An example of an inclined plane is a ramp, a funnel, a screw etc.
An objects motion or speed is distance divided by time.
During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.During motion in a vertical circle, the force of gravity (weight of the object) is in the same direction as the motion for half the time and in the opposite direction for the rest.For a body moving in a horizontal circle, gravity is acting orthogonally to the motion at all times.
Movement of a shape can involve flexing - for example, a square frame being flexed into a rhombus. Rigid motion excludes such motion: the shape of the moving object does not change.
dilation (APEX)
Your mother did
no s's in "that"
A seesaw is a back-and-forth motion, where one end goes up while the other end goes down and vice versa, creating a reciprocal movement.
A seesaw is an example of a first-class lever. The fulcrum, which is the part of the lever that does not move, is in the middle. The resistance, which is the weight (person) you are trying to lift is at one end. The effort, which is the force applied to the lever, is the person sitting on the other end.
no because it doesn't have a restoring
A seesaw stores potential energy. When one end of the seesaw goes up, it gains potential energy due to its increased height above the ground. This potential energy is converted into kinetic energy when the seesaw is in motion.
A seesaw will function smoothly when both sides have evenly distributed weight and the participants cooperate to balance their movements. It is important for individuals to communicate and work together to maintain a harmonious back-and-forth motion on the seesaw.
No, riding a seesaw is not an example of friction. Friction is the resistance that objects experience when rubbing against each other, while riding a seesaw involves a back-and-forth motion due to the pivot point and the weight distribution of the riders.
A seesaw uses a combination of gravitational force and the pushing/pulling force applied by the users to create the motion. The pushing and pulling forces result in a torque that moves the seesaw up and down around its pivot point.
Yes, the torque changes when a partner on a seesaw stands or hangs from her end instead of sitting. The torque is influenced by both the amount of force applied and the distance from the pivot point. When standing or hanging, the distance changes, affecting the torque.
An example of rest and motion occurring at the same time is a person sitting at a table in a moving train. The person is at rest with respect to the table they are sitting at, but they are in motion relative to the ground outside the train.
Balance, horizontal, play, children, fun, plank, moving, up-and-down, two, sitting.