The mass of a 2 kg bag of apples remains 2 kg on the Moon, as mass is a measure of the amount of matter in an object and does not change based on location. However, the weight of the bag would be less on the Moon due to its weaker gravitational pull, approximately 1/6th that of Earth's. Therefore, while the mass is constant, the weight would be about 3.2 newtons on the Moon.
mass is constant 2kg on earth is 2kg on the moon. Weight depends on gravity. W = mg where g is grav. acceleration. Since gravity is less on the moon, then weight is less on the moon for the same object
Divide by 6. 12kg on Earth equals 2kg on the moon.
2kg
ten 2,000 / 200 = 10
It would usually be 2kg.
It is more likely for a bag of apples to weigh 2kg because 2kg is within the typical weight range of a bag of apples, whereas 2g would be a very small weight for a bag of apples.
mass is constant 2kg on earth is 2kg on the moon. Weight depends on gravity. W = mg where g is grav. acceleration. Since gravity is less on the moon, then weight is less on the moon for the same object
We first need to convert 2kg into grams to have the same unit of measurement for both. 1kg = 1000g 2kg is then equal to 2000g Divide this then by 500g 2000g/500g = 4 500g bags make 2kg
To determine how many 200g bags can be filled from a 2kg bucket, we first need to convert the weights to the same unit. Since there are 1000g in 1kg, a 2kg bucket is equivalent to 2000g. Dividing 2000g by 200g gives us 10, meaning you can fill 10 bags with 200g each from a 2kg bucket.
2 kg = 2 x 1000 grams = 2000 grams number of bags = 2000/250 = 8 bags
Divide by 6. 12kg on Earth equals 2kg on the moon.
Yes. Kilogram is the unit of mass.
2000 divided by 400 = 5
To calculate the force required to accelerate a 2kg mass at 3m/s², you would use the formula F = m*a, where F is the force, m is the mass, and a is the acceleration. Plugging in the values we get F = 2kg * 3m/s² = 6N. The force required to accelerate the mass is 6 Newtons.
The force acting on a mass is given by the equation F = m*a, where F is the force, m is the mass, and a is the acceleration. If the mass of an object is 2kg and it is experiencing an acceleration, a force will be acting on it according to Newton's second law.