The result is the evaluated power, not a conversion into scientific notation. A positive exponent usually increases the magnitude when the base's absolute value exceeds one. A negative exponent produces a reciprocal, while a zero exponent returns one for a nonzero base.
When the base lies between −1 and 1, the magnitude behaves differently: positive powers tend toward zero, and negative powers increase the reciprocal's magnitude. For negative bases, parity controls the sign. Even integer exponents give nonnegative results; odd integer exponents keep the negative sign.
Watch how quickly exponential change accelerates. With a base of 2, consecutive positive powers are 2, 4, 8, 16 and 32; each step multiplies the previous result by 2 rather than adding 2. With base 10, moving the exponent up one place multiplies the value by ten. These patterns are useful checks on the order of magnitude.
Digital arithmetic has finite range and precision. A rounded decimal or scientific-notation output can be suitable for estimation but may not preserve an exact fraction such as 1/3. Keep symbolic form when an exact expression is required, and check the supported range before using extreme powers.