To solve this inequality, we need to simplify the left side first:
2xlog3 6 + log3(4^x-2) <= 2x + 1log3(6^(2x)) + log3(4^x - 2) <= 2x + 1log3(36^x) + log3(4^x - 2) <= 2x + 1log3(36^x(4^x - 2)) <= 2x + 1log3(4^(2x)6^x - 2^(2)) <= 2x + 1log3(16^x6^x - 4) <= 2x + 1log3(96^x - 4) <= 2x + 1
Now, rewrite the inequality in exponential form:
3^(2x + 1) >= 96^x - 43^(2x + 1) >= (3^2)^x 4 - 43^(2x + 1) >= 9^x 4 - 43^(2x + 1) >= 4 * 9^x - 4
Now, let a = 9^x:
3^(2x + 1) >= 4a - 43^(2x + 1) - 4a >= 4
Now, we can find the values of x that satisfy the inequality. However, further steps may be required to simplify or solve this inequality.
To solve this inequality, we need to simplify the left side first:
2xlog3 6 + log3(4^x-2) <= 2x + 1
log3(6^(2x)) + log3(4^x - 2) <= 2x + 1
log3(36^x) + log3(4^x - 2) <= 2x + 1
log3(36^x(4^x - 2)) <= 2x + 1
log3(4^(2x)6^x - 2^(2)) <= 2x + 1
log3(16^x6^x - 4) <= 2x + 1
log3(96^x - 4) <= 2x + 1
Now, rewrite the inequality in exponential form:
3^(2x + 1) >= 96^x - 4
3^(2x + 1) >= (3^2)^x 4 - 4
3^(2x + 1) >= 9^x 4 - 4
3^(2x + 1) >= 4 * 9^x - 4
Now, let a = 9^x:
3^(2x + 1) >= 4a - 4
3^(2x + 1) - 4a >= 4
Now, we can find the values of x that satisfy the inequality. However, further steps may be required to simplify or solve this inequality.