One kilogram equals 1000 grams. And one meter being equal to 100 centimeters, one cubic meter equals one million cubic centimeters. Hence it is clear that one kilogram per cubic meter equals one thousandth gram per cubic centimeter. So blood density which is 1050 kg per cubic meter equals 1.05 grams per cubic centimeter. As 1000kg of pure water @ 4°C = 1 cubic metre, those materials under 1000kg/cubic metre will float; more dense will sink ie. those materials with a specific gravity more than 1. As milk is denser than pure water 1 cubic metre of milk @15°C will weigh 1020 kg to 1050 kg. The density of an object is the ratio of its mass to its volume. Density can also be expressed as specific gravity. The density of seawater at the surface of the ocean varies from 1,020 to 1,029 kilograms per cubic meter." 1020--1029 kg/m3 Seawater is usually some 3.5 percent heavier than fresh water because it contains about 35 pounds of salts in each 1,000 pounds of water. It is customary to report the density of seawater in equivalent to "grams per litre excess over one kilogram," designated by the symbol σ. In this notation, the specific gravity of 1.025 is expressed as σ of 25."
Convert: 1kg/m3 to g/cm3 1kg=1000g 1m3=100*100*100=1000000cm3 therefore: 1000g/1000000cm3 = 0.001g/cm3 4200kg/m3 * 0.001g/cm3 = 4.2g/cm3
Maybe the dividing slash has been omitted and it should read kg/m3, that is kilograms per cubic meter
The pressure at a depth of 100 m below the surface can be calculated using the formula: pressure = density x gravitational acceleration x depth. Given the density of 1150 kg/m^3 and assuming a gravitational acceleration of 9.81 m/s^2, the pressure at 100 m below the surface would be approximately 1147,850 Pa.
You can solve this in two steps. (1) Calculate the ball's volume. Use the formula for a sphere, and remember that the radius is 1/2 the diameter. Convert the result it either to cubic decimeters (= liters) or to cubic meters. (2) Divide the mass by the volume.
Let us formulate the formula. If suppose m is the mass of the body then mg will be the force acting on it due to gravity. If d is the density and v the volume then v d will be the mass. Hence the force due to gravity will become v d g. This force acting due to gravity is other wise known as weight of the body. Now in your problem note down the unit. It has to be in SI system. Unit for volume is m3 and that for density is kg m-3. The unit for g is m/s2 Hence as per your problem, simply multiply 0.08, 7840 and 9.8. You will get the required answer.
The volume is 5m3 density=1,200 kgm3 what is the mass
It is 352000 kg/m^3. This is absurdly dense: Osmium, the most dense element on earth has a density of 22.6 g/cm^3 - less than a fifteenth of your substance.
11995 kgm3
1 gram/centimeter3 (g/cm3) equals 1000 kilogram/meter3 (kg/m3)
7850 kg/m3
density
Convert: 1kg/m3 to g/cm3 1kg=1000g 1m3=100*100*100=1000000cm3 therefore: 1000g/1000000cm3 = 0.001g/cm3 4200kg/m3 * 0.001g/cm3 = 4.2g/cm3
We estimate the pressure difference (specifically due to hydrostatic effects) as follows:Δp = ρgΔh =(pgh1-pgh2)(1.06 × 103 kg/m3) (9.8m/s2) (1.83 m-0) =1.90 × 104 Pa .
P= density x gravity x height and the answer is negative because air is reduced in the straw
MPa (Megapascal) is a unit of pressure, while kg/m^3 (kilograms per cubic meter) is a unit of density. They measure different physical properties and cannot be directly converted from one to the other.
Since the density of mercury (5427 kg/m³) is greater than the density of water (1000 kg/m³ or 1.0 g/cm³), mercury will sink in water. Objects with higher density than the fluid they are in will sink, while objects with lower density will float.
Density = 11340 kgm-3 = 11.340 gcm-3 Then Volume = Mass/Density = 178.96 g/11.34 gcm-3 = 15.781 cm3 approx and Thickness = Volume/(Length1 * Length2) = 15.781/(6.15 * 4.6) = 44.304 cm.