The original momentum of the more massive marble
The total momentum of marbles after a collision is equal to the sum of the momentum of each individual marble. Momentum is a vector quantity, so both the direction and magnitude of each marble's momentum must be considered when calculating the total momentum of the system.
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.
-- Measure the weight of the marble. -- While on the same planet, measure the weight of the basketball. Since both measurements were made on the same planet, the ratio of the weights is the same as the ratio of the masses. -- Divide the big weight by the small weight (Wb/Wm); call the answer ' R '. -- Start the basketball moving, and measure its speed; call the speed ' S '. -- Make the marble move at a speed of ( R times S ). Their momenta are now equal. Momentum = (mass) times (speed), and that product is now the same for both objects.
when the shooter marble was hit with a marble that had momentum
In elastic collisions, the mass of the target marble is equal to the mass of the shooter marble since momentum is conserved, so the target and shooter will have the same mass. In inelastic collisions, the mass of the target marble may be greater or lesser than the mass of the shooter marble depending on the degree of energy loss during the collision.
If the momentum started as zero, yes, it would.
The total momentum of marbles after a collision is equal to the sum of the momentum of each individual marble. Momentum is a vector quantity, so both the direction and magnitude of each marble's momentum must be considered when calculating the total momentum of the system.
Possibly but not likely.
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.
-- Measure the weight of the marble. -- While on the same planet, measure the weight of the basketball. Since both measurements were made on the same planet, the ratio of the weights is the same as the ratio of the masses. -- Divide the big weight by the small weight (Wb/Wm); call the answer ' R '. -- Start the basketball moving, and measure its speed; call the speed ' S '. -- Make the marble move at a speed of ( R times S ). Their momenta are now equal. Momentum = (mass) times (speed), and that product is now the same for both objects.
when the shooter marble was hit with a marble that had momentum
Marble and quartzite are examples of massive metamorphic rocks that lack banding. Marble is formed from the metamorphism of limestone, while quartzite is formed from the metamorphism of sandstone. Both rocks typically have a uniform composition and lack the distinct layering or banding that is characteristic of other metamorphic rocks.
In elastic collisions, the mass of the target marble is equal to the mass of the shooter marble since momentum is conserved, so the target and shooter will have the same mass. In inelastic collisions, the mass of the target marble may be greater or lesser than the mass of the shooter marble depending on the degree of energy loss during the collision.
When a marble hits a row of marbles, only one marble flies off due to the conservation of momentum. The kinetic energy from the first marble is transferred to the second marble at the end of the row, causing it to move while the others remain stationary. It's a chain reaction that propagates the energy through the row.
getting the massive marble stones laid in place and getting them there.
A longer ramp length will typically result in a higher speed for the marble due to the increased distance it has to accelerate. This allows the marble to gain more momentum before reaching the end of the ramp.
Marble is a metamorphic rock that is massive and lacks banding. It forms from the recrystallization of limestone and is composed mostly of the mineral calcite. Marbles are often used in architecture and sculpture due to their aesthetic qualities.