Weight: the amount or quantity of heaviness or mass; amount a thing weighs.
Mass: a body of coherent matter, usually of indefinite shape and often of considerable size:
example: When on the moon for example, your weigh will differ from your weight on earth. Your mass however does not change.
Mass, electric charge, and internal structure.
You would have to wait 6,000 years for this to occur, because it requires twice the half-life to reduce the radioactive isotope to 1/4 of its original mass.
Isotopes of one particular element (atom) only differ in mass and stability (decay), not in chemical properties.
Alpha particles are positively charged helium nuclei while beta particle are negatively charged electrons . Alpha particle have 4u mass while beta particles have zero mass.
An element is defined by the number of protons, so this cannot vary. Isotopes of a particular element are different in the number of neutrons within the atoms. These isotopes are said to be comparatively "lighter" or "heavier" than other isotopes based on the total of protons and neutrons (atomic mass).
How does what differ from mass?
The mass of Uranus is about 14.5 times the mass of earth.
Trick question. The mass of the swimmer will always be the same it is the weight that will differ.
Yes, the molar mass is different for isoelectronic molecules.
weight and wait
All have cores of about the same mass, but differ in the amount of surrounding hydrogen and helium.
number of neutrons and mass
They differ by mass, electrical charge, dimensions, location in atom, type of qurks contained.
-- Your mass doesn't change, no matter where you are. -- Your weight on the moon is 16.5% of what it is on Earth.
I suppose the answer is yes. But you have to wait until Mass is over. Since there is no Mass on Good Friday you will have to wait until after the Vigil Mass on Holy Saturday. Otherwise you are free to eat meat after midnight on Friday night.
Weight is how heavy something is and mass is how much space something takes up.
because they differ in the number of neutrons