I'm not exactly positive. But if you know the volume in grams and the mass (giving you density), then you should be able to figure out the molecular weight. The mass is the same as the molar mass, which I would assume is the same as the molecular weight, but I'm not positive.
To calculate the volume of a compound when given its molecular weight and weight, you need to first convert the weight to moles using the molecular weight. Then, you can use the density of the compound to find the volume by dividing the weight in moles by the density. The formula is volume = weight (in moles) / density.
The density of 35 wt% sulfuric acid is 1.174 g/cm^3. To convert weight percent to molarity, you first need to calculate the molar mass of sulfuric acid (98.08 g/mol). Then, using the density and molar mass, you can calculate the molarity (11.9 M) using the formula: Molarity = (wt% * density) / (molar mass).
To convert ppm mole of H2O to ppm wt in natural gas, you need to know the molecular weight of water (H2O), which is 18 g/mol. Once you have this information, you can use it to convert between the two units. This conversion involves considering the molecular weight of the components in the mixture.
wt=volume x density of material...
The unit for molecular weight is typically in atomic mass units (u) or daltons (Da). It represents the sum of the atomic weights of all the atoms in a molecule.
C2h6
To find the molar proportions of each oxide in a chemical compound, you first determine the molar masses of each element present in the compound. Then, calculate the molar ratio of each element by dividing their molar masses by the smallest molar mass. Finally, simplify the ratios to whole numbers if necessary to obtain the molar proportions.
The density of an object is the mass of an object divided by its volume (D = m/V). The weight of an object is its mass times the force of gravity (Wt = mg). Since both of these formulas have "mass" in them, one can be solved in terms of mass and then substituted in the other so that a new equation that directly relates density and weight to each other is created: Wt = mg Wt/g = m D = m/V D = (Wt/g)/V D = Wt/Vg *Note: Wt = weight of the object m = mass of the object D = density of the object g = force of gravity V = volume of the object
to calculate the weight from the volume, you always multiply by the density. example: If the benzene content is 2.5%v/v, then in 100mL of gasoline, you have 2.5mL of benzene. If the density of Benzene at 15.5°C is 0.81g/mL, then 2.5 x 0.81 = 2.0%w/v.
Normality is a way of expressing concentration, and is not used widely any more. It is the equivalent wt of a substance per liter of solution. The equivalent weight will depend on the reaction that take place, and can be the same as the molecular weight. Example: HCl has same equiv. wt. as mol. wt. because it has only 1 equivalent, i.e. one H. H2SO4 has TWO equivalents (2 H+) so, 1 molecular wt will be equal to 2 equivalent wts, and normality will be 2x the molarity.
A low density iron based alloy for making heads of golf clubs, the alloy consisting of essentially 28.0 to 31.5 wt % manganese, 7.8 to 10.0 wt % aluminum, 0.90 to 1.10 wt % carbon and 0.35 to 2.5 wt % titanium, and the balance being iron. Additions of 0.8 to 1.5 wt % silicon and 5.0 to 7.0 wt % chromium are optionally included in the alloy of the invention. Due to the additions of silicon and chromium, the alloy of the invention has an excellent resistance to corrosion. After the alloy has been forged or plastic worked, and then treated under a temperature from 950 degrees Celsius to 1270 degrees Celsius for 1 to 24 hours, an austenitic phase with (Ti, Fe)Cx precipitated in different content rate, the alloy obtains a low density below 6.6 g/cm
"wt"?