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Does a boulder rolling down a hill have momentum?
Yes, a boulder rolling down a hill has momentum because it is in motion and has mass. Momentum is the product of an object's mass and velocity, so the boulder possesses momentum as it moves.
How could you use indirect measurement to find the mass of a large boulder?
You could use indirect measurement to find the mass of a large boulder by measuring the displacement of water when the boulder is submerged in a container of water. By measuring the volume of water displaced, you can calculate the mass of the boulder using the principle of buoyancy.
How does mass affect the weight of somebodies weight on other planets?
Mass affects weight on other planets because weight is the result of the gravitational pull acting on an object's mass. So, the more massive a person is, the greater their weight will be on other planets with different gravitational pulls compared to Earth.
How could you use indirect measrement to find the mass of a large boulder?
One indirect method to find the mass of a large boulder is to measure its volume using displacement method in water and then use the average density of similar rocks to calculate the mass. Another method could involve measuring the boulder's dimensions and using a density scale to estimate its mass based on the material it's composed of.
What formula would you use to find the acceleration of a 10 kg boulder being pushed by a force of 65 N?
You can use Newton's second law of motion, which states that acceleration is equal to the net force acting on an object divided by its mass. So, the acceleration of the boulder would be calculated as 65 N / 10 kg = 6.5 m/s^2.
How much mass does a 980 newton weight have?
It depends on where the body was weighed. If on the surface of the earth, where the acceleration due to gravity is 9.8 ms-2, the mass would be weight/g = 980 N / 9.8 ms-2 = 100 kilograms
Weight and mass on other planets?
Weight is the force of gravity acting on an object, so it varies depending on the strength of the gravity on each planet. Mass, however, remains constant and is a measure of the amount of matter in an object. So, your mass would stay the same on any planet, but your weight would be different due to the varying gravitational forces.
What does weigh refer to?
Weight is the force with which gravity attracts an object. It can be calculated as weight = mass x gravity; for example, a person with a mass of 100 kg., on Earth (gravity = 9.8 meter per second square), weighs 980 Newton.
Gravity exists between everything with mass If this is the case why do you not notice the gravity between you and a bowl of soup?
The masses involved are insignificant. You need a much larger mass for the force to be noticeable (without special equipment).In SI units, the gravitational constant, G, is 6.67 x 10-11 m3kg-1s-2. That means that a man with a mass of 100 kg., and a bowl of soup with a mass of 1 kg., at a distance of 1 meter, will attract each other with a force of 6.67 x 10-9 Newton, which can also be written as 0.00000000667 Newton. For comparison, the bowl of soup weighs 9.8 Newton, and the man weighs 980 NewtonThe masses involved are insignificant. You need a much larger mass for the force to be noticeable (without special equipment).In SI units, the gravitational constant, G, is 6.67 x 10-11 m3kg-1s-2. That means that a man with a mass of 100 kg., and a bowl of soup with a mass of 1 kg., at a distance of 1 meter, will attract each other with a force of 6.67 x 10-9 Newton, which can also be written as 0.00000000667 Newton. For comparison, the bowl of soup weighs 9.8 Newton, and the man weighs 980 NewtonThe masses involved are insignificant. You need a much larger mass for the force to be noticeable (without special equipment).In SI units, the gravitational constant, G, is 6.67 x 10-11 m3kg-1s-2. That means that a man with a mass of 100 kg., and a bowl of soup with a mass of 1 kg., at a distance of 1 meter, will attract each other with a force of 6.67 x 10-9 Newton, which can also be written as 0.00000000667 Newton. For comparison, the bowl of soup weighs 9.8 Newton, and the man weighs 980 NewtonThe masses involved are insignificant. You need a much larger mass for the force to be noticeable (without special equipment).In SI units, the gravitational constant, G, is 6.67 x 10-11 m3kg-1s-2. That means that a man with a mass of 100 kg., and a bowl of soup with a mass of 1 kg., at a distance of 1 meter, will attract each other with a force of 6.67 x 10-9 Newton, which can also be written as 0.00000000667 Newton. For comparison, the bowl of soup weighs 9.8 Newton, and the man weighs 980 Newton
What are the ratings and certificates for Boulder Mass 'The Levitation' - 2013?
Boulder Mass 'The Levitation' - 2013 is rated/received certificates of: USA:Approved
Carlton has a mass of 100 kg What is his weight?
980 N
Does a boulder rolling down a hill have momentum?
Yes, a boulder rolling down a hill has momentum because it is in motion and has mass. Momentum is the product of an object's mass and velocity, so the boulder possesses momentum as it moves.
What is a large tall mass of rocks?
a boulder
Super throws a 2400-N boulder at an adversary what horizontal force must Superman apply to the boulder to give it a horizontal acceleration of 12.0 ms2?
According to Newton's second law of motion force is equivalent to mass times acceleration: F = m * a In this case: Assuming no mistake with the units, the mass of boulder is given as a force the gravity applies on it(weight). If it is Earth's gravitational field, the mass is: m = 2400 N / g = 244.65 kg. Force will be then: F = 244.65 * 12 = 2935.78 N
What are the release dates for Boulder Mass 'The Levitation' - 2013?
Boulder Mass 'The Levitation' - 2013 was released on: USA: 1 June 2013 (Los Angeles, California)
How could you use indirect measurement to find the mass of a large boulder?
You could use indirect measurement to find the mass of a large boulder by measuring the displacement of water when the boulder is submerged in a container of water. By measuring the volume of water displaced, you can calculate the mass of the boulder using the principle of buoyancy.
What is 980 plus 980 plus 980 plus 980 plus 980 plus 980 plus 980?
980 + 980 + 980 + 980 + 980 + 980 + 980 = 6860
