To solve the inequality:
log_3 ((2x^2+3x-5)/(x+1)) <= 1
First, rewrite the inequality in exponential form:3^(log_3 ((2x^2+3x-5)/(x+1))) <= 3^1
This simplifies to:(2x^2+3x-5)/(x+1) <= 3
Next, multiply both sides by (x+1) to get rid of the denominator:2x^2 + 3x - 5 <= 3x + 3
Subtract 3x and 3 from both sides:2x^2 - 3x - 8 <= 0
Now, factor the quadratic equation:(2x + 1)(x - 8) <= 0
This inequality holds true when either both factors are positive or both are negative. So we have two cases to consider:
Case 1: 2x + 1 > 0 and x - 8 > 0This occurs when x > -1/2 and x > 8, which simplifies to x > 8.
Case 2: 2x + 1 < 0 and x - 8 < 0This occurs when x < -1/2 and x < 8, which simplifies to x < -1/2.
Therefore, the solution to the inequality log_3 ((2x^2+3x-5)/(x+1)) <= 1 is x < -1/2 or x > 8.
To solve the inequality:
log_3 ((2x^2+3x-5)/(x+1)) <= 1
First, rewrite the inequality in exponential form:
3^(log_3 ((2x^2+3x-5)/(x+1))) <= 3^1
This simplifies to:
(2x^2+3x-5)/(x+1) <= 3
Next, multiply both sides by (x+1) to get rid of the denominator:
2x^2 + 3x - 5 <= 3x + 3
Subtract 3x and 3 from both sides:
2x^2 - 3x - 8 <= 0
Now, factor the quadratic equation:
(2x + 1)(x - 8) <= 0
This inequality holds true when either both factors are positive or both are negative. So we have two cases to consider:
Case 1: 2x + 1 > 0 and x - 8 > 0
This occurs when x > -1/2 and x > 8, which simplifies to x > 8.
Case 2: 2x + 1 < 0 and x - 8 < 0
This occurs when x < -1/2 and x < 8, which simplifies to x < -1/2.
Therefore, the solution to the inequality log_3 ((2x^2+3x-5)/(x+1)) <= 1 is x < -1/2 or x > 8.