Density = mass/volume = 36/9 = 4g/cm^3.

The Density Calculator uses the formula p=m/V, or density (p) is equal to mass (m) divided by volume (V). The calculator can use any two of the values to calculate the third. Density is defined as mass per unit volume.

1 Answer. The density of the object is 0.32gcm3.

Answer: The mass of the object is 45 g.

To find an object’s mass using its weight, the formula is Mass equals Weight divided by the Acceleration of Gravity (M = W ÷ G). Convert the weight measured in pounds to the equivalent in Newtons. In the formula for determining mass based on weight, mass is measured in Newtons.

One can consider the mass of an object as a measure of how much physical “stuff” makes up that object. mass=density×volume (m=ρV). Density is a measure of mass per unit of volume, so the mass of an object can be determined by multiplying density by volume. mass=force÷acceleration (m=F/a).

The standard International System of Units (SI) unit of mass is the kilogram (kg). The kilogram is 1000 grams (g), first defined in 1795 as one cubic decimeter of water at the melting point of ice.

Weight is a measure of the force of gravity pulling down on an object. It depends on the object’s mass and the acceleration due to gravity, which is 9.8 m/s2 on Earth. The formula for calculating weight is F = m × 9.8 m/s2, where F is the object’s weight in Newtons (N) and m is the object’s mass in kilograms.

The term “mass” is used to refer to the amount of matter in any given object….Mass of Everyday Objects.

Your mass is the same no matter where you go in the universe; your weight, on the other hand, changes from place to place. Mass is measured in kilograms; even though we usually talk about weight in kilograms, strictly speaking it should be measured in newtons, the units of force.

Mass is how much stuff something is made of. Volume is how much space an object takes up. Find two objects with similar MASS.

A: Mass is a measure of all the matter that makes up an object, and weight how much gravity is acting upon an object. Since we’re on Earth and used to measuring things on Earth with Earth’s gravity, if your mass is 50 kg, we say that you weigh 50kg. A scale on Earth would read 50kg, or 110lbs.

Usually, the relationship between mass and weight on Earth is highly proportional; objects that are a hundred times more massive than a one-liter bottle of soda almost always weigh a hundred times more—approximately 1,000 newtons, which is the weight one would expect on Earth from an object with a mass slightly greater …

Mass and weight example – the moon The Moon’s gravity is much less than the Earth’s gravity – approximately one sixth. So, a 100 kg astronaut weighs 980N on Earth. Weight on Earth: 100kg x 9.8m/s2 = 980N. Weight on Moon: 100kg x 1.622 m/s2 = 162.2N.

As your body grows, you will have more mass, which also means you will weigh more. That’s because when you’re on the earth, the amount of gravity that pulls on you stays the same. So when your mass changes, so does your weight!

Weight: The weight of the body is the force exerted by the gravitational pull of the Earth. We know that the value of acceleration due to gravity is not constant. So, for a body to have no weight, the acceleration due gravity must be zero. Hence, it is possible that a body can have mass but no weight.

Newtons. The correct unit for force is the Newton (=1 kg·m/s2) which is abbreviated N. So a 100 kg mass really weighs about 980 Newtons on Earth.

Multiply the mass (in kg) by the acceleration due to gravity (in m/s/s). Your answer is in Newtons (N). For example, a 100-kg object on earth (acceleration due to gravity: 9.81 m/s/s) weighs 100 x 9.81 = 981 N.

You have to use Newton’s formula: Fg = g x m Fg is weight of the person. g is equal tp 9.8 and m I s equal to 75 kg. So weight = 9.8 x 75 You can get your answer in Newton.

On Earth, a 1 kg object weighs 9.8 N, so to find the weight of an object in N simply multiply the mass by 9.8 N. Or, to find the mass in kg, divide the weight by 9.8 N.

The perceived weight of an object is directly proportional to its mass, which means that if the mass doubles, then the weight doubles.

If you increase either mass or velocity, the momentum of the object increases proportionally. If you double the mass or velocity you double the momentum.

If you increase the mass at a given force the rate of acceleration slows. Therefore, mass is inversely proportional to acceleration.

Therefore, the mass of an object on the Moon remains the same as its mass on Earth. But its weight gets less because the gravity on the moon is less than on the Earth.

Your Mass. Your body mass — the amount of matter it takes to make you — doesn’t change regardless of whether you are standing on the moon, the Earth, or weightless in the space capsule taking you from the Earth to the moon.

The Moon has one-sixth the gravity that Earth does. So if you want to know how much you’d weigh on the Moon, take your weight on Earth and divide it by 6. However, mass is NOT the same as weight. Your mass, the amount of matter that makes up your composition, will not change on the Moon.

Mass is independent of gravity and is therefore different from weight. See Note at weight. An object’s weight depends on its mass (the amount of matter it consists of) and the strength of the gravitational pull.

Answer. Mass is a measurement of theamount of matter something contains, while Weight is the measurement of the pull of gravity on an object. 2)Mass is measured by using a balance comparing a known amount of matterto an unknown amount of matter. Weight is measured on a scale.

So the force of gravity pulls harder on heavier objects, and it pulls every object no matter what the mass (neglecting air resistance) toward the Earth with enough force to have it accelerate 9.81 m/s/s. The Earth’s gravity is most noticeable around here because the Earth is big. Smaller objects have smaller effects.

Scales measure weight, which is the force acting on a mass that is equal to the object’s mass times its acceleration due to gravity. A scale can’t measure mass directly, because the weighing mechanism and the weight of any given object are dependent on local gravity.