Energy
In all combustion reactions (other than H2 with O2) CO2(g) and H2O(g) will be produced. CO would NOT be produced, as we are talking about COMPLETE combustion. Why can't the products be in a form of an oxide and a compound gas?
If air is limited during combustion, the process may be incomplete and result in less fuel being burned. This can lead to the formation of carbon monoxide, a toxic gas. Additionally, the amount of heat produced may be reduced, impacting the efficiency of the combustion process.
During ideal combustion of fuel oil, the primary products are carbon dioxide (CO2) and water vapor (H2O). In this ideal scenario, all carbon in the fuel is fully oxidized to CO2, and all hydrogen is converted to water. Additionally, there may be trace amounts of nitrogen oxides (NOx) formed due to high combustion temperatures, but in perfect conditions, these would be minimal. No soot or unburned hydrocarbons are produced in ideal combustion.
combustion is the complete oxidation of organic compound into carbon dioxide and water molecules in presence of oxygen gas while oxidation is the addition of oxygen in a compound or with an element the loss of electron from an atom or ion is also oxidation but it is not the combustion.all oxidizing reactions are not combustion reaction.....but all combustion reactions are oxidizing..oxidation reaction does not involve heat.....combustion reactions involve heat....
Combustion reactions that cannot be reversed are those where a fuel combines with oxygen to produce heat and light. Once the fuel is burned, it is converted into new chemical compounds such as water and carbon dioxide, making it impossible to revert back to the original fuel and oxygen.
Yes, all combustion reactions are redox processes.
All combustion is exothermic. ( i love pie)
In all combustion reactions (other than H2 with O2) CO2(g) and H2O(g) will be produced. CO would NOT be produced, as we are talking about COMPLETE combustion. Why can't the products be in a form of an oxide and a compound gas?
because during combustion heat energy is released. for example the burning of carbon in air is a combustion reaction but in this process 393.7 K.J/mol energy is released
All 4 are considered oxidation-reduction reactions
O2
All types of combustions are oxidation reactions.
Combustion and single-replacement reactions are also redox reactions. In a combustion reaction, a substance combines with oxygen and releases energy. In a single-replacement reaction, one element replaces another in a compound, resulting in a change in oxidation states.
If air is limited during combustion, the process may be incomplete and result in less fuel being burned. This can lead to the formation of carbon monoxide, a toxic gas. Additionally, the amount of heat produced may be reduced, impacting the efficiency of the combustion process.
All combustion reactions involve the rapid combination of a fuel (usually a hydrocarbon) with oxygen gas to produce heat, light, and typically carbon dioxide and water as byproducts. These reactions are exothermic, meaning they release energy in the form of heat.
Oxygen gas, O2, is present in all combustion reactions. Example: Combusting methane gas CH4(g)+2O2(g) ----> CO2(g) + 2H2O(g)
During ideal combustion of fuel oil, the primary products are carbon dioxide (CO2) and water vapor (H2O). In this ideal scenario, all carbon in the fuel is fully oxidized to CO2, and all hydrogen is converted to water. Additionally, there may be trace amounts of nitrogen oxides (NOx) formed due to high combustion temperatures, but in perfect conditions, these would be minimal. No soot or unburned hydrocarbons are produced in ideal combustion.