The oxidation number of carbon (C) in glucose is +4. This is because in glucose (C6H12O6), each carbon atom is bonded to one oxygen atom, and oxygen is more electronegative than carbon, resulting in a higher oxidation state for carbon.
The oxidation number of carbon in glucose is +4. This is because in glucose (C6H12O6), each oxygen atom has an oxidation number of -2 and each hydrogen atom has an oxidation number of +1, so the carbon atoms must have an oxidation number of +4 in order to balance the overall charge of the molecule.
The oxidation state of carbon in CaCO3 is +4. This is because the oxidation state of calcium (Ca) is +2 and the oxidation states of oxygen (O) are -2. Therefore, to balance the charges in the compound, the oxidation state of carbon must be +4.
The oxidation state of carbon (C) in CO2 is +4. Each oxygen atom in CO2 has an oxidation state of -2, so for the overall molecule to be neutral, carbon must have an oxidation state of +4.
In glucose (C6H12O6), the oxidation number of carbon is +4 or -4, oxygen is -2, and hydrogen is +1. The overall charge of the molecule is neutral.
The oxidation number of carbon (C) in glucose is +4. This is because in glucose (C6H12O6), each carbon atom is bonded to one oxygen atom, and oxygen is more electronegative than carbon, resulting in a higher oxidation state for carbon.
The sum of oxidation states in a neutral compound is zero. In glucose (C6H12O6), carbon is the most electronegative element and has an oxidation state of -4 (H=+1, O=-2). With six carbon atoms, each with an oxidation state of -4, the total oxidation state for carbon is zero.
The oxidation number of carbon in glucose is +4. This is because in glucose (C6H12O6), each oxygen atom has an oxidation number of -2 and each hydrogen atom has an oxidation number of +1, so the carbon atoms must have an oxidation number of +4 in order to balance the overall charge of the molecule.
The oxidation state of carbon in CaCO3 is +4. This is because the oxidation state of calcium (Ca) is +2 and the oxidation states of oxygen (O) are -2. Therefore, to balance the charges in the compound, the oxidation state of carbon must be +4.
The oxidation state of carbon in methanol (CH3OH) is +2. This is because oxygen has an oxidation state of -2 and hydrogen has an oxidation state of +1, so the carbon must have an oxidation state of +2 to balance the charges in the molecule.
The oxidation state of carbon (C) in CO2 is +4. Each oxygen atom in CO2 has an oxidation state of -2, so for the overall molecule to be neutral, carbon must have an oxidation state of +4.
In glucose (C6H12O6), the oxidation number of carbon is +4 or -4, oxygen is -2, and hydrogen is +1. The overall charge of the molecule is neutral.
The oxidation state of carbon in carbon monoxide (CO) is +2. In CO, carbon is more electronegative than oxygen and pulls the shared electrons towards itself, giving it a formal oxidation state of +2.
The oxidation state of carbon in graphite is 0, as each carbon atom is bonded to three other carbon atoms in a flat, hexagonal lattice structure. This results in a fully covalent bonding arrangement where carbon shares its valence electrons, meaning there is no formal transfer of electrons and therefore no oxidation state.
In KNO3, the oxidation state of the carbon atom is +4. In nitrate (NO3-), the overall charge is -1, and the oxygen atoms have an oxidation state of -2. Since there are three oxygen atoms bonded to the carbon atom, the carbon atom must have an oxidation state of +4 to balance out the charges.
The oxidation number of carbon (C) depends on the compound it is in. In most organic compounds, carbon has an oxidation number of +4, +2, 0, or -4.
In the reaction between potassium oxide (K2O) and carbon dioxide (CO2), potassium is in the +1 oxidation state in K2O and carbon is in the +4 oxidation state in CO2. When they combine, potassium oxide reacts with carbon dioxide to form potassium carbonate (K2CO3). In potassium carbonate, potassium is in the +1 oxidation state and carbon is in the +4 oxidation state.