Mass will always remain constant. Mass depends on how much stuff there is.
Also, we measure Mass in kilograms (Kg) but we measure weight in Newtons, (N).
Weight, always depends on where you are. The weight of an object will be different on Earth, compared to Mars, or just space.
The formula for the weight of an object is:
F=ma where 'F' is the weight, 'm' is the mass, and 'a' is the acceleration due to gravity on the planet in question.
Ex.) My mass is 75.0 Kg, what is my weight? (the acceleration due to gravity on Earth is 9.81)
F=ma
F=75.0 kg * 9.81 N/Kg
F=736 N
Yes, the properties of mass and weight can be useful in identifying different types of matter, though they are not definitive on their own. Mass is a measure of the amount of matter in an object, while weight is the force exerted by gravity on that mass. These properties can help differentiate materials based on density and can indicate purity or composition in some contexts. However, they should be used in conjunction with other properties, such as chemical composition and physical characteristics, for more accurate identification.
Weight is dependent on mass. Weight is the force exerted on an object due to gravity, and it is directly proportional to an object's mass. Mass, on the other hand, remains constant regardless of location in the universe.
Using the term "dalton" for atomic weight offers clarity and consistency in scientific communication, as it provides a standardized unit that is directly linked to atomic mass. This nomenclature honors the contributions of John Dalton to atomic theory, emphasizing the historical context of the field. Additionally, employing "dalton" helps differentiate atomic mass from molecular mass and other weight measurements, facilitating clearer discussions in chemistry and related sciences.
Technically... not really. It would perhaps be more accurate to use the terms formula mass and molecular mass rather than formula weight and molecular weight. This because in physical terms, weight is a force while mass is a measure of the amount of substance in something.
Yes. For most purposes, weight is a constant multiple of mass.
Mass is a measure of the amount of matter in an object, while weight is the force of gravity acting on an object's mass. Mass remains constant regardless of location, while weight can change depending on the gravitational pull of a particular location.
The gram. Also in use in the English (US) System is the pound.*for weight or force exerted by these masses due to gravity the Newton or the Poundal is used to differentiate mass and weight. {Though at the surface of the earth the mass and weight are indistinguishable.}
Answer: MASS~is the amount of matter an object possesses. It is measured in kg/g WEIGHT~is the amount of gravity an object possesses. It is measured in newtons (N) Answer: Mass can be understood by an object's inertia - roughly speaking, how much force it takes to speed it up or slow it down. On Earth, the two are proportional (the weight of an object in newtons is 9.8 times the mass in kilograms), but with more or less gravity - e.g., on the Moon - the same mass will have a different weight.
Only Ms. diaz would ask this...
No, Body Mass Index (BMI) is not a direct measure of a body's fat-free mass. BMI is a calculated value based on a person's height and weight, which categorizes individuals into weight categories but does not differentiate between fat and lean body mass. As such, BMI can be misleading, especially for athletes or individuals with high muscle mass, as it does not account for variations in body composition.
Bombardent of the body with x-rays can differentiate between fat mass and lean body mass
The weight of an object of mass 2m is 2mg. Weight is directly proportional to mass, so if you double the mass, you double the weight.
Mass and weight are not forces.But weight or a pull of gravity of an object with mass has force
Anything with mass has weight; air has mass, therefore it has weight.
Mass is the mass, weight is mass with gravity acting upon it
weight and mass measures the volume
Weight in Newtons Mass in kilograms