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The specific gravity of a mineral that is 10 times heavier than water would be 10. Specific gravity is a unitless measure that compares the density of a mineral to the density of water, which is 1 g/cm3.
Super Extra Gravity was created on 2005-10-14.
Jim will need to exert at least 25 N of force to overcome both gravity and friction and move the object. This is calculated by adding the force of gravity (15 N) and the force of friction (10 N).
The weight of the ball is the force exerted on it due to gravity. Using the formula weight = mass x acceleration due to gravity, the weight of a 10 kilogram ball with an acceleration due to gravity of 9.8 m/s^2 is 98 Newtons.
The force of gravity on the 10kg brick is 98N. This is because the force of gravity is directly proportional to the mass of the object, and in this case, it is 10 times greater than the force of gravity on the 1kg book.
10 ppm = 10/1,000,000 =0.001/100 = 0.001%
To dilute a 10 ppm solution to 1 ppm, you would mix 1 part of the 10 ppm solution with 9 parts of a diluent (such as water). This would result in a 1 ppm concentration because the concentration has been decreased by a factor of 10 during the dilution process.
10 ppm = 10/1,000,000 = 1/100,000 = 1/100,000*100% = 0.001%
10 ppm as a fraction is 10 / 1 000 000 = 0.00001, as a percentage = (10 / 1 000 000) * 100 = 0.001 %
ppm means mg per litre. mg/l means 100ug/dl. Therefore there are 10 x 10 micrograms per decilitre in ppm. In other words, 10ug/dl is 0.1 ppm.
From 10 000 BC till 1860, the pre-Industrial Age, the carbon dioxide in air was approximately 278 ppm (0.0278%). In 1900 it was 295 ppm. In 1960 it was 315 ppm. In 1980 it was 335 ppm. In 1990 it was 350 ppm. In 2000 it was 369 ppm. In 2010 it was 388 ppm. In 2011 it was 392 ppm. (March 2011)
Depends on the printer and the settings, but usually around 1 ppm on best quality, about 5 ppm on normal quality, and about 10 ppm on draft quality. Laser printers, on the other hand, range from ~10 to ~100 PPM.
To prepare a 10 ppm dilution from a 100 ppm stock solution, you can use the dilution equation: C1V1 = C2V2, where C1 is the concentration of the stock solution, V1 is the volume of the stock needed, C2 is the desired concentration, and V2 is the final volume. Here, C1 is 100 ppm, C2 is 10 ppm, and V2 is 25 ml. Rearranging the equation to solve for V1 gives you V1 = (C2 * V2) / C1 = (10 ppm * 25 ml) / 100 ppm = 2.5 ml. Therefore, you need to take 2.5 ml of the 100 ppm solution and dilute it with 22.5 ml of solvent (water or another appropriate diluent) to achieve a total volume of 25 ml at 10 ppm.
To convert parts per million (ppm) to molecules per cubic centimeter, you need to know the molecular weight of the substance. Use Avogadro's number (6.022 x 10^23) and the formula: molecules/cm^3 = (ppm * density * 6.022 x 10^23) / (molecular weight * 10^6). This will give you the concentration of molecules per cubic centimeter.
1 mg/kg = 1 ppm 1 mg = 1000 micrograms (ug) so 10 ug/kg = 0.01 mg/kg = 0.01 ppm
10 g is 10,000 mg and in 1 liter that would be 10,000 ppm. You need to have a volume in order to express the mass as ppm. In other words, 10 g NaCl cannot be expressed as parts per million unless you have the volume that it is in. If it's in a liter, then you will have 10,000 ppm.
A percentage is 'parts per hundred' and there are possibly 100 of them. ppm is parts per million. There are 10 000 hundreds in a million. So multiply your percentage by 10 000. i.e. 3% x 10 000 = 30 000 ppm. but check my math.