document.write( "Question 424904: g(x)=log3(x)
\n" ); document.write( "what is the domain of g(x);
\n" ); document.write( "what is the range of g(x);
\n" ); document.write( "find an intercept of f(x):
\n" ); document.write( "graph the equation:
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Algebra.Com's Answer #296057 by lwsshak3(11628)\"\" \"About 
You can put this solution on YOUR website!
g(x)=log3(x)
\n" ); document.write( "what is the domain of g(x);
\n" ); document.write( "what is the range of g(x);
\n" ); document.write( "find an intercept of f(x):
\n" ); document.write( "graph the equation:\r
\n" ); document.write( "\n" ); document.write( "..
\n" ); document.write( "Domain: (0,∞)
\n" ); document.write( "Range:(-∞,∞)
\n" ); document.write( "y-intercept: none
\n" ); document.write( "x-intercept: 1
\n" ); document.write( "Asymptote: y-axis\r
\n" ); document.write( "\n" ); document.write( "I'm sorry, but our program will not graph the log function. The best I can do is graph the inverse of the log function,3^x, as I did below,and describe what the log function looks like on this same graph. The log function is a mirror image of its inverse. You can plot it by swapping the x and y coordinates like any other inverse functions and use the knowledge that the x-intercept is at 1, and the asymptote is the y-axis. The x-intercept on the graph shows that the logarithm of 1 is always equal to zero. The graph also shows that the x in log x must always be greater than zero. (x>0)
\n" ); document.write( "\"+graph%28+300%2C+300%2C+-5%2C+10%2C+-5%2C+5%2C+3%5Ex%29+\"
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