The specific gravity of water on earth is 1.0000 or so, and water on the moon will have the identical specific gravity as water on earth. We generally say the specific gravity of water is 1, and it is a constant.
The specific gravity of water is the same anywhere, as long as the water sample is pure and the sample's density is measured at a temperature and pressure that is its point of maximum density.
If we assume that we don't have a pressurized container at 1 atmosphere of pressure climate-controlled to 1-4 degrees Celsius, one might suggest that water can't exist in its liquid form on the moon. The density of water vapor (again, at 1 atm) is 0.804 g/liter (0.000804 SG). In the moon's atmosphere, that density would rapidly fall to approach zero. Ice could be stable "at night" on the moon, and solid ice has a specific gravity of 0.92.
The mass of 1 liter of pure H2O at standard temperature and pressure is 1 kg.
Whatever a mass is on earth, it's the same wherever you take it. Mass doesn't
depend on the location or the local environment. Weight does.
the mass of one litter of water is 1 Kg and the mass does not change due to different gravity
1qw3
No, the density of a substance does not vary based on location.
Specific gravity (Sg) is a value that relates substance x (in this case mercury) to that of water. Notice that Sg is unit-less, thus its a ratio value, and constant. So yes, specific gravity of any substance is the same everywhere, be it earth, the moon, or Pluto. note: Obviously gravity is different on the moon, as you mentioned about 1/6th that of earth. Finding a force of a certain substance on the moon is found by multiplying the density of water by the specific weight of the substance, multiplied by the gravitational pull. Thus, it is not nessicary to change the specific gravity of the substance.
specific gravity = relative density ( relative to water) , so if the mineral is 10 times the density of water, then its specific gravity is 10
Dry Bulk Specific Gravity does not take into account for anything getting into the permeable or impermeable voids of say a stone by water for instance. Saturated Surface Dry Bulk Specific Gravity takes into account for anything getting into the permeable voids only of say a stone by water. Apparent Specific gravity takes into account for the volume of the impermeable voids and not anything getting into the permeable voids of say a stone by water.
Anything with overall specific gravity greater than 1.0 sinks in water.
Almost, but not quite. 'Specific gravity' is the density of a substancecompared to water.Numerically . . .Specific gravity of a substance = Density of the substance/Density of water.
Specific gravity (Sg) is a value that relates substance x (in this case mercury) to that of water. Notice that Sg is unit-less, thus its a ratio value, and constant. So yes, specific gravity of any substance is the same everywhere, be it earth, the moon, or Pluto. note: Obviously gravity is different on the moon, as you mentioned about 1/6th that of earth. Finding a force of a certain substance on the moon is found by multiplying the density of water by the specific weight of the substance, multiplied by the gravitational pull. Thus, it is not nessicary to change the specific gravity of the substance.
Specific Gravity.
The moon does have gravity, it is 1/6 that of the earth's. However the moon does not have water or air. There is no atmosphere to hold the air in.
gravity
Specific gravity is the ratio of density of material to the density of water, so when we use Kerosin instead of water then the value will be multiplied by the specific gravity of kerosin to get the actual specific gravity.
Not exactly. The Moon's gravity (together with the Sun's gravity) causes the tides on Earth.
Water on the surface of the moon will rapidly turn to water vapor as there is no atmospheric pressure on the moon. The vapor will then escape the moon's gravity which is much weaker than the gravity on Earth.
1.62 m/s2
specific gravity = relative density ( relative to water) , so if the mineral is 10 times the density of water, then its specific gravity is 10
The specific gravity of water is unity. Anything with a specific gravity which is over unity will therefore sink in water.
S.G. of water = 1.0 Floating, S.G. < 1.0, Submerging, S.G. > 1.0.
"Specific gravity" or "specific density"