Enter your unbalanced chemical equation into the Chemical Equation Balancer — using standard notation like H2 + O2 → H2O — and get back the balanced equation, a status confirmation, and an atom conservation check showing exactly how many atoms of each element appear on both sides.
Balanced Equation
--
Status
--
Atom Conservation Check
--
The balancer uses mathematical algorithms to solve a system of linear equations representing the conservation of mass for each element. It finds the smallest whole number coefficients that make the number of atoms equal on both sides of the equation.
Use standard chemical notation with uppercase for the first letter and lowercase for the second (Fe, Au, Co). Separate reactants with '+' and use '=' to separate reactants from products. Example: Fe + O2 = Fe2O3
Yes, you can enter ions by specifying the charge in curly brackets after the compound. For example: Fe{3+} + I{-} = Fe{2+} + I2. Use {-} or e for electrons.
You can enter just the reactants and the balancer will help identify potential products based on common reaction patterns, though it's best to have the complete equation for accurate balancing.
Some equations may not balance if they're chemically impossible, incorrectly written, or represent incomplete reactions. Check your element symbols, formulas, and ensure the reaction is chemically valid.
No, states of matter are not required for balancing. The balancer focuses only on the chemical formulas and atom counts. You can include them, but they won't affect the balancing process.
The law states that matter cannot be created or destroyed in chemical reactions. This means the total number of atoms of each element must be the same on both sides of a balanced equation.
Yes, the balancer can handle complex molecules, but for very large organic compounds, it's recommended to use simplified group notation (like Ph for phenyl groups) to avoid ambiguity and ensure accurate balancing.