The answer is +5 for the Nitrate anion and -3 for the Ammonium cation.
Here's how I came up with that answer:
NH4NO3 = (NH4)+ and (NO3)-
So we start with the known oxidation numbers, such as Hydrogen which is +1 and Oxygen which is -2.
Ammonium has 1 Nitrogen atom and 4 Hydrogen atoms with an overall Oxidation number of +1, so the algebraic equation is:
X + 4(+1) = (+1)
X + 4 = 1
X = -3
Nitrate has 1 Nitrogen atom and 3 Oxygen atoms with an overall Oxidation number of -1, so the algebraic equation is:
X + 3(-2) = (-1)
X - 6 = -1
X = 5
The oxidation state of nitrogen in NH4NO3 is +5. In NH4NO3, the nitrogen is present in the nitrate ion (NO3-), where nitrogen has an oxidation state of +5. In ammonium nitrate, the ammonium ion (NH4+) has a nitrogen atom with an oxidation state of -3, which balances the positive charge of the four hydrogen atoms.
NH₄NO₃ (ammonium nitrate), the oxidation number of nitrogen in the NH₄⁺ ion is -3, and in the NO₃⁻ ion is +5. The overall charges balance with the ammonium ion being +1 and the nitrate ion being -1.
In NH4F, nitrogen has an oxidation state of -3, hydrogen has an oxidation state of +1, and fluorine has an oxidation state of -1.
The oxidation state of NO is +1. This is because nitrogen is in Group 15 of the periodic table and typically has an oxidation state of -3. In NO, oxygen is more electronegative than nitrogen, causing nitrogen to have a formal oxidation state of +1 to balance the charge.
In KNO3, the nitrogen atom has an oxidation state of +5. This is because potassium (K) is in Group 1 and has an oxidation state of +1, and oxygen (O) is in Group 6 and has an oxidation state of -2. To balance the charges, nitrogen must have an oxidation state of +5.
The oxidation state of nitrogen in NH4+ is -3.
NH₄NO₃ (ammonium nitrate), the oxidation number of nitrogen in the NH₄⁺ ion is -3, and in the NO₃⁻ ion is +5. The overall charges balance with the ammonium ion being +1 and the nitrate ion being -1.
In NH4F, nitrogen has an oxidation state of -3, hydrogen has an oxidation state of +1, and fluorine has an oxidation state of -1.
The oxidation state of NO is +1. This is because nitrogen is in Group 15 of the periodic table and typically has an oxidation state of -3. In NO, oxygen is more electronegative than nitrogen, causing nitrogen to have a formal oxidation state of +1 to balance the charge.
In KNO3, the nitrogen atom has an oxidation state of +5. This is because potassium (K) is in Group 1 and has an oxidation state of +1, and oxygen (O) is in Group 6 and has an oxidation state of -2. To balance the charges, nitrogen must have an oxidation state of +5.
The oxidation state of nitrogen in NH4+ is -3.
-3
The oxidation state of nitrogen (N) in NH4+ is -3. Nitrogen usually has a -3 oxidation state in ammonium ion (NH4+) as hydrogen is typically considered to have +1 oxidation state and there are four hydrogen atoms bonded to nitrogen in NH4+.
The oxidation state of nitrogen in ammonia (NH3) is -3. Each hydrogen atom has an oxidation state of +1, and since the overall charge of ammonia is 0, the nitrogen atom must have an oxidation state of -3 to balance it out.
The oxidation state of the nitrogen atom in HNO3 is +5. This is because oxygen is typically assigned an oxidation state of -2, and hydrogen is +1. In HNO3, the total oxidation states of the hydrogen and oxygen atoms sum to zero, leaving nitrogen with an oxidation state of +5 to balance the charge.
The oxidation state of an individual nitrogen atom in CaCO3 is +4. In CaCO3, nitrogen is present in the carbonate ion (CO3)2-, and since each oxygen atom in the carbonate ion has an oxidation state of -2, the carbon atom must have an oxidation state of +4 to balance the charge.
The oxidation state of Nitrogen in NH2NH2 is -2. This is because each hydrogen atom has an oxidation state of +1 and there are two hydrogen atoms bonded to each nitrogen atom in NH2NH2. Since the overall charge of NH2NH2 is neutral, the nitrogen atoms must have an oxidation state of -2 to balance the positive charges of the hydrogen atoms.
Nitrogen typically has an oxidation state of -3 in its most common compounds, such as ammonia (NH3) or nitrate (NO3-). However, in some compounds like nitrous oxide (N2O) or nitrogen dioxide (NO2), nitrogen can have different oxidation states.