All you need to know is the distance the marble travelled and how long it took to travel that distance. For example, if a marble travels 30 cm in 5 seconds then its average velocity would be 30 / 5 cm / sec = 6 cm / sec.
The velocity of the marble increases as it accelerates down its first hill due to the force of gravity. As the marble descends, the gravitational potential energy is converted into kinetic energy, leading to an increase in velocity until it reaches the bottom of the hill.
After the collision, both marbles move together to the right with a velocity of 7.3 cms. This is calculated using the conservation of momentum and energy principle. The blue marble transfers some of its momentum to the red marble during the collision.
The forces acting on a marble, such as gravity and friction, determine its acceleration and direction of motion. These forces can cause the marble to speed up, slow down, change direction, or come to a stop depending on their magnitude and direction. The net force acting on the marble will ultimately determine its overall motion.
The mass of a marble ball can vary depending on its size. On average, a standard small marble ball can weigh around 5-10 grams.
From the equation F=ma, fixing F (force) as a constant, changing m(mass) effects directly to a(acceleration). Increasing mass, acceleration drops, decreasing mass, acceleration increases. Acceleration= change in velocity/ time.
The marble has lower drag so its terminal velocity would be greater. Each has its own terminal velocity.
The velocity of the marble increases as it accelerates down its first hill due to the force of gravity. As the marble descends, the gravitational potential energy is converted into kinetic energy, leading to an increase in velocity until it reaches the bottom of the hill.
The marble's kinetic energy is halfway between its initial and final energies. This is because kinetic energy is proportional to the square of the velocity, and velocity would have increased as the marble rolled down the incline, reaching its maximum velocity at the bottom.
After the collision, both marbles move together to the right with a velocity of 7.3 cms. This is calculated using the conservation of momentum and energy principle. The blue marble transfers some of its momentum to the red marble during the collision.
Water displacement.
The texture,materials,age, and size/weight determine the rarity of a marble
Marble is a non-metallic, non-transparent mineral with a dull to glassy luster. To determine its luster, you can observe how light reflects off its surface. Marble typically has a smooth and reflective surface that gives it a pearly or vitreous luster.
The initial velocity is zero. In most basic physics problems like this one the initial velocity will be zero as a rule of thumb: the initial velocity is always zero, unless otherwise stated, or this is what you are solving for Cases where the initial velocity is not zero examples a cannon ball is shot out of a cannon at 50 mph a ball is thrown from at a speed of 15 mph etc
The forces acting on a marble, such as gravity and friction, determine its acceleration and direction of motion. These forces can cause the marble to speed up, slow down, change direction, or come to a stop depending on their magnitude and direction. The net force acting on the marble will ultimately determine its overall motion.
There are several places to find information on how to clean marble. One is under wiki information and the other is under the stone cobblers information site.
Used for what? More information is needed.
Possibly but not likely.