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Calculus

  1. Introducing the Differential Calculus using First Principles

  2. Introducing the Differential Calculus: Newton's Method

  3. Introducing the Differential Calculus: The Product Rule

  4. Introducing the Differential Calculus: The Quotient Rule

  5. Introducing the Differential Calculus: Composite Functions

  6. Introducing the Integral Calculus: Integration by Parts

  7. Introducing the Integral Calculus: Integration by Substitution

  8. Applications of Calculus: Simple Harmonic Motion

  9. Applications of Calculus: Torricelli's Law

  10. Applications of Calculus: Projectile Motion

  11. Applications of Calculus: Introducing Maclaurin Series


             
 Screenshot      Author  Title  Description  Syllabus Reference
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Steve Arnold

Introducing the Differential Calculus from First Principles

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My trip to school each day takes me 20 minutes to travel 15 miles. We would say that my average speed for this trip is 45 miles per hour.

In reality, however, I speed up and slow down continuously over that time. The differential calculus allows us to describe instantaneous rates of change rather than just averages!

In this activity, we begin with the concept of gradient between two points, which lie on the graph of a function. We learn that for many functions (like my trip to school) the gradient (or rate of change) actually changes constantly and we can calculate this rate at every point of my journey, not just at start and finish.

This activity explores first principles numerically, graphically and algebraically. It has a CAS extension which uses dynamic algebra and programming.

8. The Tangent to a Curve and the Derivative of a Function

10. Geometrical Applications of Differentiation

14. Applications of Calculus to the Physical World

Steve Arnold

Exploring Newton's Method

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Suppose we wish to approximate the zeros for a function, f(x).

Newton's Method (sometimes called the Newton-Raphson Method) is an iterative method for doing this - which means that the more times we apply the method, the better our approximation should become!

This activity explores Newton's method numerically, graphically and algebraically. It has a CAS extension which uses dynamic algebra and programming.

8. The Tangent to a Curve and the Derivative of a Function

10. Geometrical Applications of Differentiation

14. Applications of Calculus to the Physical World

Steve Arnold

Introducing the Differential Calculus: The Product Rule

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Student Worksheet file

The rules for differentiation for most simple functions are clear and easily learned. More difficult functions, however, can cause problems. Sometimes it helps to break the problem into smaller pieces.

This activity introduces and consolidates student skills and understanding of the Product Rule using a variety of tools, from algebraic spreadsheets to programs.

10. Geometrical Applications of Differentiation

14. Applications of Calculus to the Physical World

Steve Arnold

Introducing the Differential Calculus: The Quotient Rule

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Student Worksheet file

In this activity, we consider the case of a function which can be expressed in the form u(x)/v(x).

Once again, this activity uses CAS to introduce and consolidate student skills and understanding of the Quotient Rule using a variety of tools, from computer algebra to algebraic spreadsheets to programming.

10. Geometrical Applications of Differentiation

14. Applications of Calculus to the Physical World

Steve Arnold

Introducing the Differential Calculus: Composite Functions

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Student Worksheet file

In this activity, we consider the case of a function which can be expressed in the form y = f(g(x)).

Once again, this activity uses CAS to introduce and consolidate student skills and understanding of the Chain Rule using a variety of tools, from computer algebra to algebraic spreadsheets.

10. Geometrical Applications of Differentiation

14. Applications of Calculus to the Physical World

Steve Arnold

Introducing the Integral Calculus: Integration by Parts

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Student Worksheet file

We have discovered that there are rules such as the Product and Quotient Rules for dealing with more difficult derivatives. But what about harder integrals?

Using CAS, algebraic spreadsheets and programming, this activity develops the method of Integration by Parts from the Product Rule, and then provides opportunities for students to explore and consolidate this important technique for integration.

11. Integration

11 Extension. Methods of Integration

Steve Arnold

Introducing the Integral Calculus: Integration by Substitution

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In this activity we examine more difficult integrals that may be approached by using appropriate substitution - but how do we recognise these integrals, and how do we tell what to substitute?

Using CAS and algebraic spreadsheets, this activity develops the method of Integration by Substitution, and then provides opportunities for students to explore and consolidate this important technique for integration.

11. Integration

11 Extension. Methods of Integration

Steve Arnold

Applications of Calculus: Simple Harmonic Motion

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In this activity we investigate an important application of calculus to the physical world, simple harmonic motion. Within the context of motion on a swing, students derive the formulas, first by differentiation of the displacement/time equation and, later, by integration from the defining equation for acceleration.

Using multiple representations and CAS, this activity provides an introduction to later work on differential equations.

14. Simple Harmonic Motion

Steve Arnold

Applications of Calculus: Torricelli's law

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Student Worksheet file

Torricelli's Law describes the velocity at which water leaves a container through a (small) opening: in fact, he maintained (in 1643) that the velocity attained by the water was the same as that of water falling from the same height under the influence of gravity.

This activity uses multiple representations, algebraic programming and CAS to lead students through the derivation of Torricelli's Law and of projectile motion as applications of differential equations.

14. Projectile Motion

Steve Arnold

Applications of Calculus: Projectile Motion

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Projectile Motion can be one of the best of the applications of Calculus to explore, and in this activity we not only throw balls, we shoot cannons and even shoot for basketball hoops - and learn about differential equations at the same time.

This activity uses multiple representations, algebraic programming and CAS spreadsheets to lead students through the derivation of the defining equations for projectile motion and give plenty of opportunities for practice and consolidation of both knowledge and skills.

14. Projectile Motion

Steve Arnold

Applications of Calculus: Introducing Maclaurin Series

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Student Worksheet file

Polynomials are great, aren't they? So much easier to work with than many of those other tricky functions - especially when we are doing Calculus.

This activity uses multiple representations, interactive graphs and CAS spreadsheets to lead students through the derivation of the Maclaurin and Taylor series for approximating functions, and provides plenty of opportunities for practice and consolidation of both knowledge and skills.

16. Polynomials

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