To solve this inequality, we first need to rewrite it in a different form.
Using properties of logarithms, we can rewrite the inequality as: log3,((x+1)/(x−1))3, ((x+1)/(x-1))3,((x+1)/(x−1))^1/21/21/2 ≥ 0
Now, we can remove the logarithm by raising 3 to the power of both sides: (x+1)/(x−1)(x+1)/(x-1)(x+1)/(x−1)^1/21/21/2 ≥ 1
Square both sides to simplify: x+1x+1x+1/x−1x-1x−1 ≥ 1
Now we can further simplify by multiplying both sides by x−1x-1x−1: x+1 ≥ x-1
Subtract x from both sides: 1 ≥ -1
This inequality is always true, meaning that the original inequality is also true for all real numbers x. Thus, the solution is: x belongs to R allrealnumbersall real numbersallrealnumbers
To solve this inequality, we first need to rewrite it in a different form.
Using properties of logarithms, we can rewrite the inequality as:
log3,((x+1)/(x−1))3, ((x+1)/(x-1))3,((x+1)/(x−1))^1/21/21/2 ≥ 0
Now, we can remove the logarithm by raising 3 to the power of both sides:
(x+1)/(x−1)(x+1)/(x-1)(x+1)/(x−1)^1/21/21/2 ≥ 1
Square both sides to simplify:
x+1x+1x+1/x−1x-1x−1 ≥ 1
Now we can further simplify by multiplying both sides by x−1x-1x−1:
x+1 ≥ x-1
Subtract x from both sides:
1 ≥ -1
This inequality is always true, meaning that the original inequality is also true for all real numbers x. Thus, the solution is:
x belongs to R allrealnumbersall real numbersallrealnumbers