The equation for speed or fast is v=at and the distance is d=1/2 at2
the acceleration is 'a'.
The size of a shadow is affected by the angle and intensity of the light source, the distance between the object and the light source, and the size and shape of the object. The position of a shadow is influenced by the relative positions of the light source, the object, and the surface on which the shadow falls.
Parallax id the apparent shift in position of an object with respect to the background due to a shift in view point.
The center of mass of an object is the point at which its mass can be considered to be concentrated. It is the average position of all the mass in the object. It is the point around which the object will balance in any orientation.
Yes, the shadow is longer behind an object, as it is cast by the object blocking the light source. The length of the shadow will depend on the angle and position of the light source in relation to the object.
The formula used to calculate the image distance for a diverging lens is 1/f = 1/d_o + 1/d_i, where f is the focal length of the lens, d_o is the object distance, and d_i is the image distance. Given the object distance of 51 mm, the object height of 13 mm, and the image height of 3.5 mm, the image distance from the lens can be calculated using the equation and appropriate algebraic rearrangements.
1.8 m
An object's position changes over time due to its velocity, which is the rate of change in position with respect to time. By integrating the velocity over time, we can determine the position of the object. This relationship is described by the equation: position = initial position + velocity * time.
The molecules in a solid object are tightly packed together and vibrate in place. They have a fixed position and do not move around freely like in a liquid or gas.
The motion of an object described by an equation will depend on the specific equation used. Common equations to describe motion include position, velocity, and acceleration functions. By analyzing these equations, you can determine how the object moves over time, its speed, and its direction of motion.
For freely falling objects, the equation of motion is modified to account only for the effects of gravity. The equation becomes: y = 0.5gt^2, where y is the height of the object at time "t" in seconds, and "g" is the acceleration due to gravity (approximately 9.8 m/s^2). Friction and other forces are typically ignored in these scenarios.
Okay so I am not good at this, but I think it is d = (1/2)g*t^2.
The potential energy that results from the "or" position of an object is gravitational potential energy. It is determined by the object's position in a gravitational field, with the potential energy increasing as the object is raised to a higher altitude. This potential energy can be calculated using the equation: PE = mgh, where m is the mass of the object, g is the acceleration due to gravity, and h is the height of the object above the reference point.
The "d" in the free fall equation corresponds to the displacement or distance the object falls vertically under the influence of gravity. It represents how far the object has fallen from its initial position.
The equation for a vertical spring-mass system is given by: m a -k x where: m mass of the object a acceleration of the object k spring constant x displacement from the equilibrium position
For an object moving with uniform motion, the equation of motion does not change. The equation remains the same as it describes the relationship between an object's position, velocity, and time regardless of whether the motion is uniform or non-uniform. Uniform motion implies constant velocity, so the acceleration term in the equation of motion is zero.
Yes, an object freely falling still has mass. Mass is a measure of the amount of matter in an object, and it remains constant regardless of the object's motion. The force of gravity acting on the object is what causes it to fall.
F(t) = h - 16t2