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laplacianZero
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[(x)*(1/9)^(1/9)^x ] - 1 = y
How do you find the roots?
How do you find the roots?
Since x appears as both the base and as an exponent, the only non-graphical, non-numerical alternative is the Lambert W function. See https://en.wikipedia.org/wiki/Lambert_W_functionlaplacianZero said:Besides plotting to find approximate root or using the Newton raphson method, are there any other ways?
The expression does not have a second zero, at least not with the conventional interpretation of a^b^c as a^(b^c).jedishrfu said:The desmos graph calculator shows two zeros at ? and at ? where ## 0 < x < 10##
The ? are left to the student.
Yes, that may have what happened and I didn't notice. I should have saved the expression that was input then I didn't where I went wrong.mfb said:You get that if you interpret a^b^c as (a^b)^c = a^(b*c).
A transcendental function is a mathematical function that cannot be expressed in terms of a finite number of algebraic operations. These functions involve operations such as logarithms, exponentials, and trigonometric functions.
Transcendental functions are used to solve complex equations and model natural phenomena. They are also used in various fields of science, such as physics, engineering, and economics.
Transcendental functions involve operations that go beyond basic algebraic functions, such as addition, subtraction, multiplication, and division. Algebraic functions can be expressed using a finite number of these operations, while transcendental functions cannot.
Some common examples of transcendental functions include the logarithmic function (log x), exponential function (e^x), and trigonometric functions such as sine (sin x) and cosine (cos x).
Transcendental functions are used in various real-world applications, such as calculating compound interest in finance, modeling population growth in biology, and predicting the motion of objects in physics. They are also used in computer programming and data analysis to solve complex problems.