DIFFERENTIATION APPLICATIONS

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Presentation transcript:

DIFFERENTIATION APPLICATIONS PROGRAMME 8 DIFFERENTIATION APPLICATIONS

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Differentiation of inverse trigonometric functions If then Then:

Differentiation of inverse trigonometric functions Similarly:

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Derivatives of inverse hyperbolic functions If then Then:

Derivatives of inverse hyperbolic functions Similarly:

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Maximum and minimum values A stationary point is a point on the graph of a function y = f (x) where the rate of change is zero. That is where: This can occur at a local maximum, a local minimum or a point of inflexion. Solving this equation will locate the stationary points.

Maximum and minimum values Having located a stationary point it is necessary to identify it. If, at the stationary point

Maximum and minimum values If, at the stationary point The stationary point may be: a local maximum, a local minimum or a point of inflexion The test is to look at the values of y a little to the left and a little to the right of the stationary point

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Differentiation of inverse trigonometric functions Derivatives of inverse hyperbolic functions Maximum and minimum values Points of inflexion

Points of inflexion A point of inflexion can also occur at points other than stationary points. A point of inflexion is a point where the direction of bending changes – from a right-hand bend to a left-hand bend or vice versa.

Points of inflexion At a point of inflexion the second derivative is zero. However, the converse is not necessarily true because the second derivative can be zero at points other than points of inflexion.

Points of inflexion The test is the behaviour of the second derivative as we move through the point. If, at a point P on a curve: and the sign of the second derivative changes as x increases from values to the left of P to values to the right of P, the point is a point of inflexion.

Learning outcomes Differentiate the inverse trigonometric functions Differentiate the inverse hyperbolic functions Identify and locate a maximum and a minimum Identify and locate a point of inflexion