5.9 Hyperbolic Functions. Graph the following two functions: These functions show up frequently enough that they have been given names. The behavior of.

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Presentation transcript:

5.9 Hyperbolic Functions

Graph the following two functions: These functions show up frequently enough that they have been given names. The behavior of these functions shows such remarkable parallels to trig functions, that they have been given similar names.

Hyperbolic Sine: (pronounced “cinch x”) Hyperbolic Cosine: (pronounced “kosh x”) Note: Definitions

Show that Examples

Note that this is similar to but not the same as: Now, if we have “trig-like” functions, it follows that we will have “trig-like” identities. Identities

Hyperbolic Tangent: “tansh (x)” Hyperbolic Cotangent: “cotansh (x)” Hyperbolic Secant: “sech (x)” Hyperbolic Cosecant: “cosech (x)” Definitions

Derive some hyperbolic trig identities from the following basic identity. Derive the double-angle identity, analogous to Identities

Surprise, this is positive! Derivaties

(quotient rule)

All derivatives are similar to trig functions except for some of the signs:  Sinh, Cosh and Tanh are positive.  The others are negative.

Even though it looks like a parabola, it is not a parabola! A hanging cable makes a shape called a catenary. (for some constant a ) Another example of a catenary is the Gateway Arch in St. Louis, Missouri.

boat semi-truck A third application is the tractrix. An example of a real-life situation that can be modeled by a tractrix equation is a semi-truck turning a corner. Another example is a boat attached to a rope being pulled by a person walking along the shore. Other examples of a tractrix curve include a dog leaving the front porch and chasing person running on the sidewalk. (pursuit curve) Both of these situations (and others) can be modeled by: