clm222
Hello.
I was doing algebra earlier today and I came across having to simplify log(x)\cdot log(x). Now obviously this can be described as an exponent, but I am curious how to write it. Can I write it as log(x)\cdot log(x)={log^2}(x) or should i do log(x)\cdot log(x)=(log(x))^2 I thought of this since if I did log(x)\cdot log(x)=log{(x)^2} then that would mean that log(x)\cdot log(x)=2log(x), which is not true. Same with other functions, like the sine function. How do I simplify sin(x)\cdot sin(x)? Or even for any other function? f(x)\cdot f(x)={f^2}(x)?
My second question about function notation is: does
f(x^2)=f{(x)^2}?
ie: ln(x^2)=ln{(x)^2}?
finally: my algebra teacher told me that you commonly write products with digits first, then constants, then variables (ie) 2\cdot l\cdot \pi=2\pi l. I have seen this order all over math books and sites. my question is, in what order do you write products with digits, constants, variables, AND functions?
finaly, should you try to put multipliers that have exponents at the end, for example \frac{2\cdot g}{\pi}=2g{\pi^{-1}}?
Thank you.
I was doing algebra earlier today and I came across having to simplify log(x)\cdot log(x). Now obviously this can be described as an exponent, but I am curious how to write it. Can I write it as log(x)\cdot log(x)={log^2}(x) or should i do log(x)\cdot log(x)=(log(x))^2 I thought of this since if I did log(x)\cdot log(x)=log{(x)^2} then that would mean that log(x)\cdot log(x)=2log(x), which is not true. Same with other functions, like the sine function. How do I simplify sin(x)\cdot sin(x)? Or even for any other function? f(x)\cdot f(x)={f^2}(x)?
My second question about function notation is: does
f(x^2)=f{(x)^2}?
ie: ln(x^2)=ln{(x)^2}?
finally: my algebra teacher told me that you commonly write products with digits first, then constants, then variables (ie) 2\cdot l\cdot \pi=2\pi l. I have seen this order all over math books and sites. my question is, in what order do you write products with digits, constants, variables, AND functions?
finaly, should you try to put multipliers that have exponents at the end, for example \frac{2\cdot g}{\pi}=2g{\pi^{-1}}?
Thank you.