To simplify, you write one copy of the base, then add the exponent. Example:x^5 times x^3 = x^8
In the case of positive integer exponents, this can easily be derived by writing each power as a repeated multiplication. However, this law is also valid for negative or fractional exponents.
When you multiply two variables with different exponents, the exponents are added. For example, if you multiply x^2 by x^3, the result is x^(2+3) = x^5. Similarly, if you multiply x^3 by x^(-2), the result is x^(3+(-2)) = x^1 = x.
This is one of the laws of exponents, which states that xa * xb = x(a+b) The base is x, and the two powers (or exponents) are a and b.
the answer is simple you can not
When you multiply two bases that are the same, you add their exponents. For example, if you have (a^m \times a^n), the result is (a^{m+n}). This rule applies only when the bases are identical; if the bases differ, you cannot combine them in this way.
When a base is raised to a power inside a quantity , multiply the two exponents to solve.
When you multiply two variables with different exponents, the exponents are added. For example, if you multiply x^2 by x^3, the result is x^(2+3) = x^5. Similarly, if you multiply x^3 by x^(-2), the result is x^(3+(-2)) = x^1 = x.
Multiply
This is one of the laws of exponents, which states that xa * xb = x(a+b) The base is x, and the two powers (or exponents) are a and b.
the answer is simple you can not
When a base is raised to a power inside a quantity , multiply the two exponents to solve.
The exponents are added.
When you multiply two bases that are the same, you add their exponents. For example, if you have (a^m \times a^n), the result is (a^{m+n}). This rule applies only when the bases are identical; if the bases differ, you cannot combine them in this way.
When a base is raised to a power inside a quantity , multiply the two exponents to solve.
when two numbers are multiplied together that are exponents you multiply the bases amd add the exponents the relationship would simply be that the product exponents are the sum of the exponents being multiplied in the question
When we multiply terms with the same base, we add the exponents due to the definition of exponentiation. Each exponent indicates how many times the base is multiplied by itself, so when we multiply two terms with the same base, we are essentially combining all those multiplications. For example, (a^m \times a^n) can be rewritten as (a) multiplied by itself (m) times and then (n) additional times, resulting in (a^{m+n}). This property helps simplify calculations and maintain consistency within the rules of exponents.
When you multiply fractions together, you multiply the numerators together to get the numerator of the answer and you multiply the denominators together to get the denominator of the answer. For example: 1/2 * 2/3 = (1*2)/(2*3) = 2/6 = 1/3. When multiplying exponents of the same base together, you simply add the two exponents and make that the exponent of the same base. For example: 22 * 23 = 25 = 32. Or for the algebra-savvy: x2 * x3 = x5.
The sum of the exponents for two variables in a polynomial or algebraic expression is called the degree of the term. For example, in the term (x^m y^n), the degree is (m + n). This concept helps determine the overall degree of the polynomial when combining multiple terms.