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  1. This is exactly what happens with power functions of e: the natural log of e is 1, and consequently, the derivative of $$e^x$$ is $$e^x$$. $$\frac{\text{d}}{\text{d}x}e^x=e^x$$ The "Chain" Rule

  2. The derivative of e^u is e^u multiplied by the derivative of whatever u is. Let's take e^x as an example. In this case u = x. First we take the expression as is ( e^x) and then we multiply it by the derivative of u, and since u is x in this case the derivative of x is just 1 so the answer is e^x * 1. Let's take it up a notch. Say u = 2x.

  3. 21 Ιουν 2023 · The derivative of \(e^{x}\) is \(e^{x}\) (shown in this chapter). Use the slider to adjust the value of the base a in the function \(y=a^x\) ; Compare your result with the function \(y = e^x\). Explain what you see for \(a > 1\), \(a = 1\), \(0 < a < 1\) and \(a = 0\).

  4. To find the derivative of the function e^u, where u is a variable, we can use the chain rule. The chain rule states that if we have a composite function, f (g (x)), then the derivative of f (g (x)) with respect to x is given by: (f (g (x)))’ = f' (g (x)) * g' (x) In this case, f (u) = e^u and g (x) = u. So, we have: (e^u)’ = (e^u)’ * (u)’.

  5. Derivatives of Exponential Functions. In order to differentiate the exponential function. f (x) = a^x, f (x) = ax, we cannot use power rule as we require the exponent to be a fixed number and the base to be a variable. Instead, we're going to have to start with the definition of the derivative: \begin {aligned} f' (x) &= \lim_ {h \rightarrow 0} ...

  6. Using the chain rule of differentiation, we have: d/dx(e^u) = d/dx(e^(u(x))) = d/du(e^u) * du/dx Since u is a function of x, we need to apply the chain rule to evaluate du/dx:

  7. 25 Ιουλ 2021 · The Derivative of the Exponential. We will use the derivative of the inverse theorem to find the derivative of the exponential. The derivative of the inverse theorem says that if \(f\) and \(g\) are inverses, then \[g'(x)=\dfrac{1}{f'(g(x))}. \nonumber \] Let \[f(x)=\ln(x) \nonumber \] then \[f'(x)=\dfrac{1}{x} \nonumber \] so that

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