00 is the awkward cousin
Some contexts set \(0^0=1\) (empty product), others call it undefined. This tool avoids declaring a value to keep things honest.
Tip: Try negatives like y = -3 (that means reciprocal).
Exponents are a compact way to describe repeated multiplication, and this calculator makes them easy to work with. If you have ever wondered how to compute powers like 210, interpret negative exponents, or understand why x0 equals 1, you are in the right place. The tool lets you enter any base and exponent and instantly see the result, with optional scientific notation for very large or very small numbers.
The expression xy is read “x to the power of y.” It means multiply the base x by itself y times. For example, 34 means 3 × 3 × 3 × 3 = 81. Some rules make exponents easier to remember: for any nonzero x, x0 = 1. A negative exponent flips the result into a reciprocal, so x−3 = 1 / x3. Fractional exponents connect to roots, like x1/2 = √x and x3/2 = √(x3).
This calculator also handles the tricky cases for you. The expression 00 is labeled undefined, and a negative base with a non-integer exponent may not have a real-number result. When that happens, the tool warns you so you can adjust inputs or interpret the answer correctly. For small whole-number exponents, the calculator can show the multiplication expansion so you can see the pattern step by step.
Exponents show up everywhere: area and volume formulas (s2, s3), scientific notation (10n), compound growth in finance, and scale changes in science and engineering. A student might use this to check homework, a researcher might compute powers in scientific notation, and a finance learner might explore how repeated growth quickly accelerates. Try a few examples like 25, 10−3, or 1.54 to see how the exponent affects the outcome.
Some contexts set \(0^0=1\) (empty product), others call it undefined. This tool avoids declaring a value to keep things honest.
Every time you drop the exponent by 1, you divide by the base. That’s why \(x^{-3} = 1/x^3\) — three divides in a row.
\(x^{1/2}\) is \(\sqrt{x}\); \(x^{3/2}\) is \(\sqrt{x^3}\). Rational exponents let you write roots without the radical symbol.
\(\log_b(x)\) answers “what power of b gives x?” That’s why logs turn multiplication into addition in slide rules.
For \(2^n\), each +1 in the exponent doubles the result. 10 doublings turn 1 into 1,024—exponential curves ramp quickly.