What is the mass percent of nitrogen in ammonium carbonate, (NH4)2CO3?

Answers

Answer 1
Answer:

In order for you to calculate for the mass of ammonium carbonate, you need to know the molar mass of it and the nitrogen atoms in the compound. Ammonium carbonate has a molar mass of 96.08 grams per mole. There are two nitrogen atoms in ammonium carbonate which is equal to 28.02 grams per mole. Divide the molar mass of nitrogen to the ammonium carbonate, 28.02/96.08 x 100, we get 29.16wt% nitrogen.

Answer 2
Answer:

Answer:

29.16%.

Explanation:

You can determine the mass percent, or how much of the total mass of ammonium carbonate is nitrogen, by first determining the mass of nitrogen and the mass of the total compound.

1. the mass of nitrogen in this compound is 2 x 14.007, or 28.014.

2. the mass of ammonium carbonate is 96.09 grams.

To find the percentage of nitrogen in the overall mass of ammonium carbonate, simply divide the mass of nitrogen by the mass of ammonium carbonate and multiply by 100:

28.014/96.09 x 100 ....................... 29.16%.

Also, I got the correct answer :)


Related Questions

Which formula represents an unsaturatedorganic compound?(1) CH4 (3) C3H8(2) C2H4 (4) C4H10
The kinetic molecular theory assumes that the particles of an ideal gas(1) are in random, constant, straight-line motion (2) are arranged in a regular geometric pattern (3) have strong attractive forces between them (4) have collisions that result in the system losing energy
What is the total number of grams of NaI(s)needed to make 1.0 liter of a 0.010 M solution?(1) 0.015 (3) 1.5(2) 0.15 (4) 15
What is the gram formula mass of Ca3(PO4)2
HELP ME with THIS I am time i have a little bit of time and still have more questions !!! CHEMISTRY!!

10. How many g of Cu(OH)2 can be made from 9.1 x 1025 atoms of O?

Answers

Molar mass Cu(OH)₂ = 97.561 g/mol

97.561 g Cu(OH)₂ --------------- 6.02x10²³ atoms
  ? g Cu(OH)₂ -------------------- 9.1x10²⁵ atoms

mass = 9.1x10²⁵ * 97.561 / 6.02x10²³

mass = 8.87x10²⁷ / 6.02x10²³

mass = 14734.2 g

hope this helps!

A physical property is one that cannot be observed

can be observed by altering the identity

can be changed without altering the identity of a substance

must be observed through chemical means

Answers

The correct answer is the 3rd option A physical property is one that can be changed without altering the identity of a substance. These set of properties is not concentration dependent. They are used to describe matter. Examples are density, solubility, melting point, color and odor.

Which type of attraction can be used to explain the high boiling point of H2O?1. ionic bonding
2. hydrogen bonding
3. polar covalent bonding
4. nonpolar covalent bonding

Answers


The answer is Hydrogen bonding.

Hydrogen bonding among water molecules is responsible for the high specific heat of water the result of which water gains heat very slowly.

 Specific heat is the amount of  heat per unit mass that is required  to raise the temperature by one degree Celsius.

The specific heat of water is 4.186 joules/gram Celcius, which is higher than any other common substance. It is higher than that of a metal.

Thus due to this, water tends to boil at high temperature.


In a laboratory, a student makes a solution by completely dissolving 80.0 grams of KNO3(s) in 100.0 grams of hot water. The resulting solution has a temperature of 60.°C. The room temperature in the laboratory is 22°C.Classify, in terms of saturation, the type of solution made by the student.

Answers

Answer:

Unsaturated solution.

Explanation:

At 60°C, 100.0g of water can dissolve 110g of KNO₃.

By definition, if you add 110g of KNO₃, the solution will be saturated, if you add more than 110g, the solution becomes supersaturated (That means crystals of solute will form), if you add less than 110g, the solution is unsaturated.

In the problem, you are adding 80g of KNO₃(s), that means you made a unsaturated solution.

Answer: Unsaturated

Explanation: There are three types of saturation levels that can be chosen, unsaturated, saturated, and supersaturated. If you look on Table G on the Reference Table, find the temperature in which the solution is at and go up until you reach the amount of dissolved substance (grams). If the dot is over the line then it is supersaturated, if its on the line then its saturated, and if it's below the line then is unsaturated. 
                                                                                        Cheers!

Which of the following is an example of a chemical reaction?

Answers

Answer:

where is the option I can't see plz give the option first the I try to give answer

The diagram shows the electron arrangement in a molecule of ammonia, showing only outershell electrons.
I
H
(i) State the type of bonding in ammonia.
1
6​

Answers

The diagram shows 5 eletctron in the outermost shell of Nitrogen atom out of which 3 electrons are involved in the bond formation with 3Hydrogen atoms.

The type of bond in ammonia is Covalent.

What is covalent bond ?

Covalent bond is the bond formed by mutual Sharing of electrons by both the atoms taking part in the bond formation.

Nitrogen has 5valence electrons of which only 3 are shares with the 3 atoms of hydrogen (one electron shares with one atom of hydrogen)

Hence, type of  bond in ammonia is covalent.

Learn more about covalent bond here ;

brainly.com/question/19382448

#SPJ1

Final answer:

Ammonia (NH3) has a covalent bonding type resulting in a tetrahedral electron-pair geometry, but because of the lone pair, the molecular structure is trigonal pyramidal. The bond angle is slightly less than 109.5⁰ due to the lone pair occupying more space.

Explanation:

The type of bonding in ammonia, which has a molecule structure as shown in the question, is covalent bonding. The ammonia molecule, NH3, has one lone pair and three single bonds which gives it a tetrahedral electron-pair geometry, as shown in Figure 7.18. However, because one of these regions is a lone pair that is not counted in the molecular structure, the molecule assumes a trigonal pyramidal shape.

The lone pair occupies more space than the single bonds, which leads to a slight deviation in the actual bond angles from the idealised angles. The angle in the ammonia molecule is slightly less than 109.5⁰ due to this additional electron pair's space occupancy.

Learn more about Covalent Bonding in Ammonia here:

brainly.com/question/16655971

#SPJ3