Recall that

is defined for all positive real numbers, therefore:

Also, since the range of log_3(x) is all real numbers, then:

Now, to find the x-intercept, we set y(x)=0:

Dividing the above equation by 0.7 we get:

Solving the above equation for x we get:

Therefore, the x-intercept has coordinates (1,0).
Since the function is only defined at (0,∞), there is no y-intercept.
Finally, the function has an asymptote at x=0.
Answer:
Domain:

Range:

X-intercept:

Y-intercept: There is no y-intercept.
Asymptote:
