It would take 3 apples to equal a pound if each apple weighed one third of a pound.
If 1 pound equals 3, then 1 ounce equals 0.1875, so 80 ounces would eqalppual 15.
52 oz.One pound equals to 16 ounces and one ounce equals 0.06 of a pound. Also this relates only to solid (weight) ounces. There are two different kinds of ounces, ounces of weight/mass and ounces of volume (fluid). This can change when you are using the ounces to measure a non-liquid such as flour or sugar since the weight of dry items is not the same as their volume. An ounce of volume is called a "fluid ounce."
The weight of a 100-pound object on Uranus would be about 91 pounds. This is because Uranus has a weaker gravitational pull compared to Earth.
They would weigh the same, as both are a pound. Weight is determined by the mass of the objects, not the type of material.
It would take 3 apples to equal a pound if each apple weighed one third of a pound.
3 apples to 1 poundTherefore 3 x 4 = 12 apples
What is the answer to Mr Green sells apples at 50p per pound. Estimate how much 2 kilograms of apples would cost?
They would cost 5.95
A pound is a measurment of weight. The weight of a pound does not change. Therefore, a pound of "fjhfjhdfh" would be equivalent to a pound of "abc" or "xyz", they would all be as heavy as a pound.
$3.44
Jane would multiply the total weight (1 pound 12 ounces = 1.75 pounds) by the price per pound ($1.96) to find the total cost. So, 1.75 pounds * $1.96 = $3.43. Jane would pay $3.43 for 1 pound 12 ounces of apples.
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.
If 1 pound equals 3, then 1 ounce equals 0.1875, so 80 ounces would eqalppual 15.
The answer depends on the person's weight on Earth but each pound's weight on Earth would be equivalent to 0.376 pound's weight on Mars.
7/5 x 2.45 = $3.43
Both would weigh the same. Weight is determined by the mass of the object (1 kilogram in both cases) and the gravitational force acting on it. The gravitational force on the moon is weaker than on Earth, but the mass of the objects remains the same regardless of location.