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Why is calculus so ... EASY ?

Mathologer・2 minutes read

Calculus, often seen as complex, can be simplified with the help of the book "Calculus Made Easy" and a fresh perspective presented in a video, making it accessible for all levels of learners. The video demonstrates how calculus concepts can be understood using a car's speedometer and odometer, showcasing both simple and powerful integral and differential calculus concepts.

Insights

  • "Calculus Made Easy" by Silvanus P. Thompson, published in 1910, has been a popular resource for over a century, simplifying complex calculus concepts into easily understandable principles.
  • The video on calculus offers a fresh perspective suitable for beginners and experts alike, showcasing how calculus concepts, such as differential calculus focusing on slopes and integral calculus on areas under curves, can be comprehended through relatable examples like a car's speedometer and odometer, emphasizing the practical applications and simplicity of fundamental calculus rules.

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Recent questions

  • What is the significance of "Calculus Made Easy" by Silvanus P. Thompson?

    It simplifies calculus concepts for over a century.

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Summary

00:00

Simplified Calculus: Easy Understanding for All

  • Calculus is often perceived as complex, but it can be simplified and understood easily.
  • The book "Calculus Made Easy" by Silvanus P. Thompson, published in 1910, simplifies calculus and has been popular for over a century.
  • The video aims to present a fresh perspective on calculus, suitable for both beginners and experts.
  • The video will demonstrate how calculus concepts can be understood by using a car's speedometer and odometer.
  • Differential calculus, which deals with slopes, is relatively simple and can be taught to anyone.
  • Integral calculus, focusing on areas under curves, is more complex but also contains easy and powerful concepts.
  • The video will conclude with a five-minute animation deriving essential calculus formulas, inspired by the book "Calculus Made Easy."
  • The relationship between speed and distance in a car can be used to perform mathematical calculations, such as finding areas under curves.
  • Differential calculus involves translating functions between speed and distance, with the Fundamental Theorem of Calculus being a key concept.
  • Derivatives of common functions, such as powers, trigonometric functions, and exponential functions, can be easily calculated using basic rules.

15:01

Understanding Calculus: Derivatives, Integrals, and Applications

  • Calculus is valuable because the derivative of every elementary function is also elementary, making it easy to find derivatives.
  • Derivatives of products, sums, differences, quotients, and substitutions of elementary functions are also elementary.
  • Derivative rules include plus, minus, times, divided, and substitution of one function into another.
  • Derivatives of elementary functions can be found by applying the product, sum, and quotient rules in reverse order.
  • Differential calculus involves finding speed and acceleration by differentiating distance as a function of time.
  • To find maxima and minima of a function, locate the zeros of its derivative.
  • Integral calculus involves finding the antiderivative of a function, which can be simplified using the fundamental theorem of calculus.
  • The area under a function can be calculated by evaluating the antiderivative at the boundaries of the area.
  • Functions have infinitely many antiderivatives, all differing by constants.
  • Some elementary functions do not have elementary antiderivatives due to the absence of rules like the chain rule.

29:22

Derivative Rules and Leibniz Notation in Calculus

  • The process of finding the limiting slope, represented as df/dx, involves calculating with d-increments to derive derivative rules, starting with the product rule which is obtained by incrementing x by dx, f by df, and g by dg, leading to an algebraic expansion and simplification to reveal the product rule.
  • The application of Leibniz notation in differential calculus showcases the derivation of various rules and the derivatives of fundamental functions, culminating in the introduction of the integral sign denoting anti-derivatives, with a focus on the derivative of one function substituted into another through the cancellation of dg to reveal the total change represented by df.
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