The image shows the formula for the arc length of a curve and an example integral. The general formula for the arc length $L$ of a function $y = f(x)$ from $x = a$ to $x = b$ is:

$L = \int_a^b \sqrt{1 + \left( \frac{dy}{dx} \right)^2} \, dx$

In the specific case provided in the image, the arc length is calculated for the function with an integrand involving $e^{2x}$. The integral presented is:

$L = \int_0^1 \sqrt{1 + e^{2x}} \, dx$

This integral computes the length of the curve described by a function that likely involves an exponential term, which complicates the arc length formula. The next step would involve evaluating or approximating this integral, potentially through numerical methods or series expansion, as it cannot be solved in closed form using elementary functions.

Would you like me to proceed with solving this integral numerically or explain further?

Here are five related questions to expand on the concept:

1. How is the arc length formula derived from calculus?
2. What are the steps to solve an arc length integral for more complex functions?
3. Can you approximate the value of this integral numerically?
4. How does the exponential function $e^{2x}$ affect the curvature of the graph?
5. What other types of functions are commonly used in arc length problems?

Tip: In arc length problems, checking the complexity of the derivative $\frac{dy}{dx}$ is crucial, as it determines whether the integral can be solved analytically or requires numerical methods.