- #1
Witcher
- 15
- 3
Seems like an odd place to stop. Aren't you trying to solve for x?Witcher said:Homework Statement:: I have this problem that seems to be too easy to be true. I don’t know if i am done and would like to move on to the next problem.
Homework Equations:: 4Ln3x=15
I stopped where it says e^15=3x^4 it seems complete but i am not sure.
In addition to what @OmCheeto said, you have made an error in applying the rule:Witcher said:Homework Statement:: I have this problem that seems to be too easy to be true. I don’t know if i am done and would like to move on to the next problem.
Homework Equations:: 4Ln3x=15
I stopped where it says e^15=3x^4 it seems complete but i am not sure.
Yea just solving for x but it’s X^4. I may have a few more things in mind that may work.OmCheeto said:Seems like an odd place to stop. Aren't you trying to solve for x?
Yes, you can plug in the value you got for x back into the original equation and see if it satisfies the equation. If it does, then you have solved the equation correctly.
If there are variables on both sides of the equation, or if there are multiple variables in the equation, it may be incomplete. Additionally, if there is no equal sign or if the equation seems to be missing information, it may also be incomplete.
It depends on the specific equation. In some cases, you may be able to solve the equation using other mathematical operations or techniques. However, for this particular equation, solving for x will require the use of logarithms.
The natural logarithm (ln) is a mathematical function that is the inverse of the exponential function. It is used to find the power that a base number (in this case, 3) needs to be raised to in order to get a certain value (in this case, 3x).
Yes, when solving equations, it is important to follow the order of operations (PEMDAS - Parentheses, Exponents, Multiplication/Division, Addition/Subtraction). Additionally, in this case, you will need to use the inverse of the logarithm function (exponentiation) to isolate x on one side of the equation.