Oxidation is when the material your'e working with, draws the oxygene-atoms from the surroundings into itself, so that the oxygene becomes a part of the matter.
Here's a few examples:
When you put magnesium(Periodic number 12, alkali metal) together with water, it reacts like this:
H20+Mg=MgO2+H
The thing that happens when you put the two materiels together, is that the magnesium begins to draw the oxygene-atoms in the water to itself, so that it becomes Mg02 (an oxid). So basically, a oxid is just a matter that contains oxygene-atomes.
Like:
FeO=iron-oxide.
MgO=Magnesium-oxide.
AlO=Aluminium-oxide.
And so on...
Basically, rust is just iron who have ben oxidated by contact with water.
About the NaNO3 your'e talking about, i don't know. Try looking it up at Wikipedia.
Well, isn't that a happy little question! In the compound NaBr, bromine has an oxidation state of -1. It's like a little dance between sodium and bromine, creating a balanced and harmonious relationship in the molecule. Just remember, in the world of chemistry, every element has its own special role to play.
Ah, the oxidation state of Cl in ClO is -1. You see, in compounds with oxygen, like ClO, oxygen usually has an oxidation state of -2. Since the overall charge of ClO is 0, chlorine must have an oxidation state of +1 to balance out the -2 from oxygen.
The oxidation state of aluminum in aluminum fluoride is +3. Aluminum has a tendency to lose three electrons to achieve a stable electron configuration, resulting in an oxidation state of +3 in compounds like aluminum fluoride (AlF3).
The most common oxidation state of -2 would be Oxygen.
The oxidation of sulfur can result in various oxidation states, including -2, 0, +4, and +6. Sulfur can form compounds like sulfur dioxide (SO2) in the +4 oxidation state and sulfuric acid (H2SO4) in the +6 oxidation state.
Well, isn't that a happy little question! In the compound NaBr, bromine has an oxidation state of -1. It's like a little dance between sodium and bromine, creating a balanced and harmonious relationship in the molecule. Just remember, in the world of chemistry, every element has its own special role to play.
The oxidation number of iron can vary, but it is commonly found at +2 or +3. In some compounds, like Fe2O3, iron is in the +3 oxidation state, while in others, like FeO, it is in the +2 oxidation state.
The oxidation state of silicon is typically +4 in compounds like silicon dioxide (SiO2) where silicon is bonded to oxygen. Silicon can also have an oxidation state of -4 in compounds like silane (SiH4) where it is bonded to hydrogen.
The oxidation number of Na in NaH is +1 because alkali metals like Na typically have a +1 oxidation state in compounds. The oxidation number of H in NaH is -1 because hydrogen usually has a -1 oxidation state when bonded to metals.
The oxidation state of N in HNO2 is +3. This is because, in a neutral molecule like HNO2, the sum of the oxidation states of all atoms must equal zero. Since the oxidation state of H is +1 and O is -2, the oxidation state of N in HNO2 must be +3 to balance it out.
The oxidation state of nitrogen in the molecule N2 is 0. This is because, in a diatomic molecule like N2, the atoms have an equal sharing of electrons, resulting in no charge imbalance or oxidation state.
The oxidation number of KF is +1 for potassium (K) and -1 for fluorine (F). This is because alkali metals like potassium typically have an oxidation state of +1, while halogens like fluorine have an oxidation state of -1 in ionic compounds.
The oxidation number of oxygen in hydroxide (OH-) is -2 since oxygen typically has an oxidation number of -2 in compounds. The oxidation number of hydrogen in hydroxide is +1 since hydrogen usually has an oxidation number of +1 when bonded to nonmetals like oxygen.
Ah, the oxidation state of Cl in ClO is -1. You see, in compounds with oxygen, like ClO, oxygen usually has an oxidation state of -2. Since the overall charge of ClO is 0, chlorine must have an oxidation state of +1 to balance out the -2 from oxygen.
The oxidation state of aluminum in aluminum fluoride is +3. Aluminum has a tendency to lose three electrons to achieve a stable electron configuration, resulting in an oxidation state of +3 in compounds like aluminum fluoride (AlF3).
The oxidation number of hydrogen in ethane (C2H6) is +1. Hydrogen tends to have a +1 oxidation state when bonded to nonmetals like carbon.
The oxidation number of manganese in manganese oxide (MnO) is +2. This is because oxygen typically has an oxidation number of -2 and in a neutral compound like manganese oxide, the oxidation numbers must add up to zero. Hence, manganese must be in the +2 oxidation state to balance the -2 oxidation state of oxygen.