To determine the number of covalent bonds in 9 grams of ice (solid water, H₂O), we first calculate the number of moles of water. The molar mass of H₂O is approximately 18 g/mol, so 9 grams of ice corresponds to 0.5 moles. Each water molecule has two covalent bonds (between oxygen and the two hydrogen atoms), resulting in a total of 1 mole of covalent bonds in 9 grams of ice, or approximately (6.02 \times 10^{23}) covalent bonds.
4.2 teaspoons are present in 21 grams of cappucino
7,68 grams of calcium nitride is equal to 0,052 moles.
75 grams water is equal to 4,166 moles.
If 17,4 is grams the number of moles is 0,084.
The answer is 24,92 g nitrogen.
28.3495231 grams are present in a zip.
There are 8.94 grams of almonds are present in a tablespoon of almonds
9.7 grams of garlic powder will be present in a tablespoon.
3.65 grams of water is equal to .203 moles of H2O. This means there is also .203 moles of H2 present, or .408 grams.
The molecule contains two hydrogen-bond donors.
A double bond contains 2 pi electrons.
It varies. An alkene is a homologous series that repeats itself. Like alkanes, the key feature of an alkene is the carbon-carbon bond. Alkane has a single bond, alkene has a double bond, and alkyne has a triple bond. So the answer is it depends on how many homologs are present.
Since oleic acid has one double bond, it can react with 1 mol of hydrogen (2 g) per double bond in a process called hydrogenation. Therefore, 75g of oleic acid requires 2g of hydrogen to saturate the double bond.
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48grams of sugar will be present in a jar of jam.
4.2 teaspoons are present in 21 grams of cappucino
To find the number of moles, first calculate the molar mass of sodium nitrate (NaNO3), which is 85 grams/mol. Then, divide the given mass (2.85 grams) by the molar mass to obtain the number of moles present, which is approximately 0.0335 moles.