Weight is a very good approximation of MASS... but to determine EXACT mass is something you'd not be able to do in the "backyard."
Weight and mass are considered equivilent on the earth's surface. That is something that weighs 1 kilogram on earth has one kilogram of mass. It will only weigh 160 grams on the moon but will still have 1 kilogram of mass. To estimate the mass of an apple without a scale is to see how much water it displaces.
No because now part of the apple is missing so the mass would be less. The total mass of the apple is not changed, but part of the mass is now in the biter's mouth.
D = M/V so you could get a measuring cup and fill it partway with water. Then put the apple in. Because apples float you will will have to hold the apple underwater with a toothpick or needle (this will slightly change your measurement). Measure the new place the water is at. This is the volume (in ml). Then to find the mass you will have to weight the apple. Divide mass by volume and you'll have your answer in grams/milliliters.
The mass of an average apple typically ranges from 100 to 200 grams. This can vary depending on the size and variety of the apple. In kilograms, this would be approximately 0.1 to 0.2 kilograms.
A gram.
grams
No because now part of the apple is missing so the mass would be less. The total mass of the apple is not changed, but part of the mass is now in the biter's mouth.
To find the mass of an apple using a spring balance, first ensure the balance is calibrated to zero. Then, hang the apple from the hook of the spring balance and allow it to hang freely without any additional force applied. The reading on the scale will indicate the gravitational force acting on the apple, which corresponds to its weight. Since weight equals mass times gravity (W = mg), you can directly read the mass of the apple from the spring balance, assuming the scale is calibrated to display mass instead of weight.
The total mass of the apple remains the same whether it is whole or sliced into pieces. Slicing the apple into pieces does not change the total amount of matter in the apple.
The apple has mass. The Earth has mass. The apple falls down, and the Earth "falls" up. The Earth's motion is not measurable. The apple's motion is.
"Pound" is a unit of force. It's not a unit of mass. The mass of an apple depends on the individual apple. If it weighs, say, 8 ounces on Earth, then its mass is 0.5 poundmass, or 0.015625 slug.
D = M/V so you could get a measuring cup and fill it partway with water. Then put the apple in. Because apples float you will will have to hold the apple underwater with a toothpick or needle (this will slightly change your measurement). Measure the new place the water is at. This is the volume (in ml). Then to find the mass you will have to weight the apple. Divide mass by volume and you'll have your answer in grams/milliliters.
Yes an apple takes up more space than a paper towel so there for an apple has a larger mass.
To figure out the density of an apple you have to know the mass and the volume. To find the mass use a triple balance beam and to find the volume use a graduated cylinder. After you have the mass and the volume, do mass divided by volume and you should get the density. :)
Two things that have mass are an apple and a rock.
Because the mass f the Earth is way greater then the apple's mass. Though apple attracts earth it is so negligible that it is equal to 0
The apple would most likely have a mass of 250 grams
the apple and the earth accelerate toward each other. force on apple (and earth) f = ((G * earth mass * apple mass) / distance ^2 ) . earth mass = 5.974 * 10^24 kg apple mass = 0.5 kg distance (between centre of gravities) = 6 371 000 metres . f = 4.909938 newtons . acceleration of apple = f / mass apple = 9.8199 (m/s)/s acceleration of earth = f / mass earth = 8.219 * 10^-25 (m/s)/s