MoS2.
-2 for each S, +4 for Mo
MoS2. -2 for each S, +4 for Mo
The oxidation number of oxygen is typically -2, so for the whole MoO4^2- ion (which has a charge of -2), the total oxidation number must sum up to -2. This means that the oxidation number of molybdenum (Mo) in MoO4^2- would be +6.
The oxidation number of oxygen is typically -2. Since there are four oxygen atoms in MoO4-2 and the overall charge is -2, the oxidation number of molybdenum (Mo) is calculated to be +6 to balance the negative charge.
The oxidation number of molybdenum (Mo) in MoO4^2- is +6. This is because the overall charge of the compound is -2, and each oxygen atom has an oxidation number of -2. By setting up an equation (x + 4(-2) = -2), we find that x = +6.
The oxidation number of molybdenum (Mo) in the MoO4^2- ion is +6. This is because oxygen typically has an oxidation number of -2, and there are four oxygen atoms in the persulfate ion (O4^2-), making the total charge -8. For the overall ion to have a charge of -2, molybdenum must have an oxidation number of +6 to balance the charges.
MoS2. -2 for each S, +4 for Mo
The oxidation number of oxygen is typically -2, so for the whole MoO4^2- ion (which has a charge of -2), the total oxidation number must sum up to -2. This means that the oxidation number of molybdenum (Mo) in MoO4^2- would be +6.
The oxidation number of oxygen is typically -2. Since there are four oxygen atoms in MoO4-2 and the overall charge is -2, the oxidation number of molybdenum (Mo) is calculated to be +6 to balance the negative charge.
Roland I. E. Nwaogu has written: 'Molybdenum disulphide-filled thermosetting plastics'
The oxidation number of molybdenum (Mo) in MoO4^2- is +6. This is because the overall charge of the compound is -2, and each oxygen atom has an oxidation number of -2. By setting up an equation (x + 4(-2) = -2), we find that x = +6.
The oxidation number of molybdenum (Mo) in the MoO4^2- ion is +6. This is because oxygen typically has an oxidation number of -2, and there are four oxygen atoms in the persulfate ion (O4^2-), making the total charge -8. For the overall ion to have a charge of -2, molybdenum must have an oxidation number of +6 to balance the charges.
If you mean MoO4 the oxidation number of Mo is 8 and the compound would be called Mo(VIII) oxide. This compound does not exist, it is theoretical- teachers and examiners often use such nonexistent compounds as teaching aids- why I don't know- i think it is misleading as there are plenty of real compounds about.
In NaMoO3, sodium (Na) has an oxidation number of +1, oxygen (O) has an oxidation number of -2, and the overall charge of the compound is 0. Since there is only one Mo atom in the compound, the oxidation number of molybdenum (Mo) can be calculated to be +6 using the formula: (+1) + x + 3(-2) = 0 where x is the oxidation number of Mo.
MoPO4 is the formula for Molybdenum Phosphate with the Mo in oxidation state III. Mo can have multiple oxidation states. H3PMo12O40 is phosphomolybdic acid - see more information on this species at the related link.
In FeSO4, the oxidation number of Fe is +2, and the oxidation number of oxygen is -2. To find the oxidation number of S, we can set up an equation: 2(-2) + x + 4(-2) = 0 (overall charge of the compound is zero). Solving this equation gives the oxidation number of S as +6.
In ammonium molybdate, ((NH_4)_2MoO_4), the oxidation states can be determined as follows: the ammonium ion ((NH_4^+)) has a +1 oxidation state, and there are two such ions, contributing +2 overall. The oxide ions ((O^{2-})) each have a -2 oxidation state, contributing -8 overall from the four oxygen atoms. To balance these, molybdenum (Mo) must have an oxidation state of +6, resulting in the overall compound being neutral. Thus, the oxidation state of molybdenum in ((NH_4)_2MoO_4) is +6.
Most molybdenum atoms have 54 neutrons. The atomic number (number of protons) of molybdenum is 42, and its weight (number of protons and neutrons) is around 96. 96 - 42 = 54.