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Solution - Derivative

xx(ln(x)+1)
x^{x} \left(\ln{\left(x \right)} + 1\right)

Other Ways to Solve

Derivative

Step-by-step explanation

1. Solve derivative

Computing the derivative of a power function.

ddx[xx]=xx(ddx[x]×ln(x)+xx×ddx[x])

The derivative of a variable with respect to itself is always equal to one.

xx(ddx[x]×ln(x)+xx×ddx[x])=xx(1×ln(x)+xx×ddx[x])

Simplifying the arithmetic expressions.

xx(1×ln(x)+xx×ddx[x])=xx(1×ln(x)+1×ddx[x])

The derivative of a variable with respect to itself is always equal to one.

xx(1×ln(x)+1×ddx[x])=xx(1×ln(x)+1×1)

Multiplying a number by one, which does not change its value.

xx(1×ln(x)+1×1)=xx(ln(x)+1×1)

Multiplying a number by one, which does not change its value.

xx(ln(x)+1×1)=xx(ln(x)+1)

Simplifying the arithmetic expressions.

xx×(ln(x)+1)=xx(ln(x)+1)

Why learn this

Ever wondered how to predict the future? Derivatives are your crystal ball!

Picture this: You're a surfer trying to catch the biggest wave. How do you know when it's coming? Derivatives can tell you when it's at its highest point!

Rocket Science: Planning to launch a rocket to Mars? Derivatives tell us the optimal fuel burn rate to minimize fuel consumption and maximize distance!

Stock Market: Trading in the stock market? Derivatives can indicate the rate at which stock prices are changing, helping predict the best time to buy or sell.

Animation: Love animated movies? Artists use derivatives to smoothly change the motion and expressions of characters, making them feel more lifelike.

Engineering: Designing a bridge or a skyscraper? Derivatives help determine the rates of stress and strain changes in materials, ensuring the safety of your structures.

In short, derivatives are like a secret code to understanding change and making predictions in real life. So let's crack this code together and become masters of our futures!

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