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    Applied Engineering Mathematics

    Differentiation Rules

    Proof?

    Applied Engineering Mathematics

    Differentiation Rules

    Applied Engineering Mathematics

    Differentiation Rules

    Applied Engineering Mathematics

    rnek

    Differentiation Rules

    Applied Engineering Mathematics

    Differentiation Rules

    rnek

    Applied Engineering Mathematics

    Differentiation Rulesrnek

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    Applied Engineering Mathematics

    rnek

    Differentiation Rules

    rnek

    Applied Engineering Mathematics

    Differentiation Rules

    rnek

    Applied Engineering Mathematics

    Differentiation Rules

    Applied Engineering Mathematics

    Differentiation Rules

    Applied Engineering Mathematics

    Derivation as a Rate of ChangeInstataneous Rate of Change

    rnek

    Applied Engineering Mathematics

    Derivation as a Rate of Change

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    Applied Engineering Mathematics

    Derivation as a Rate of Change

    rnek

    Applied Engineering Mathematics

    Derivation as a Rate of Changernek

    Applied Engineering Mathematics

    Derivation as a Rate of Change

    Applied Engineering Mathematics

    Derivation as a Rate of Change

    Applied Engineering Mathematics

    Derivation as a Rate of Change

    Applied Engineering Mathematics

    rnekDerivation as a Rate of Change

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    Applied Engineering Mathematics

    Derivatives of Trigonometric Functions

    Applied Engineering Mathematics

    Derivatives of Trigonometric Functionsrnekler

    Applied Engineering Mathematics

    Derivatives of Trigonometric Functions

    Applied Engineering Mathematics

    Derivatives of Trigonometric Functionsrnek

    Applied Engineering Mathematics

    Derivatives of Trigonometric Functions

    Applied Engineering Mathematics

    rnek

    rnek

    Derivatives of Trigonometric Functions

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    Applied Engineering Mathematics

    The Chain Rule and Parametric Equations

    rnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equationsrnek

    rnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equations

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equationsrnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equations

    rnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equationsrnek

    rnek

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    Applied Engineering Mathematics

    rnek

    The Chain Rule and Parametric Equations

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equations

    Parametric EquationsInstead of describing a curve by expressing the y-coordinate of a point P(x, y) on the curve as a

    function of x, it is sometimes more convenient to describe the curve by expressing both

    coordinates as functions of a third variable t.

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equationsrnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equationsrnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equations

    Applied Engineering Mathematics

    rnekThe Chain Rule and Parametric Equations

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    Applied Engineering Mathematics

    The Chain Rule and Parametric Equationsrnek

    Applied Engineering Mathematics

    The Chain Rule and Parametric Equations

    Applied Engineering Mathematics

    Implicit Differentiation

    Applied Engineering Mathematics

    rnek

    Implicit Differentiation

    Applied Engineering Mathematics

    Implicit Differentiation

    Applied Engineering Mathematics

    Implicit Differentiation

    rnek

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    Applied Engineering Mathematics

    Implicit Differentiation

    rnek

    Applied Engineering Mathematics

    Implicit Differentiation

    Applied Engineering Mathematics

    Implicit Differentiation

    Using implicit differentiation in was much simpler than calculating dy/dx directly from any of

    the above formulas. Finding slopes on curves defined by higher-degree equations usuallyrequires implicit differentiation.

    Applied Engineering Mathematics

    Implicit Differentiation

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    Applied Engineering Mathematics

    Implicit Differentiation

    rnek

    Applied Engineering Mathematics

    Implicit Differentiation

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    Applied Engineering Mathematics

    Implicit Differentiation

    Applied Engineering Mathematics

    Implicit Differentiation

    rnek

    Applied Engineering Mathematics

    Implicit Differentiation

    Applied Engineering Mathematics

    Linearization and DifferentialsWe introduce new variables dx / dy, called differentials, and define them in a waythatmakes Leibnizs notation for the derivative a true ratio. We use dy to estimate error inmeasurement and sensitivity of a function to change.

    Applied Engineering Mathematics

    Linearization and Differentials

    In general, the tangent to y=f(x) at a point where is differentiable, passes through thepoint (a, (a)), so its point-slope equation

    Applied Engineering Mathematics

    Linearization and Differentials

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    Applied Engineering Mathematics

    Linearization and Differentials

    Applied Engineering Mathematics

    rnek

    Linearization and Differentials

    Applied Engineering Mathematics

    Linearization and Differentials

    Applied Engineering Mathematics

    Linearization and Differentials

    Applied Engineering Mathematics

    rnekThe radius r of a circle increases from to 10.1 m. Use dA to estimate the increase in thecircles areaA. Estimate the area of the enlarged circle and compare your estimate tothe true area.

    Linearization and Differentials

    Applied Engineering Mathematics

    Linearization and Differentials

    Bir ncekirneebakarsak

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    Applied Engineering Mathematics

    rnek

    Linearization and Differentials

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    A drilling rig 12 mi. offshore is to be connected by pipe to a refinery onshore, 20miles straight down the coast from the rig. If underwater pipe costs 500,000 permile and land based pipe costs $300,000 per mile, what combination of the twowill give the least expensive connection?

    rnek

    Applications of derivatives

    Underwater pipe is more expensive, so weuse as little as we can. We run straight toshore (12 mi) and use land pipe for 20 mito the refinery.Dollar cost = 12*500,000 + 20*300,000

    = = 12,000,000

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    Applications of derivatives

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    Applied Engineering Mathematics

    rnek

    Applications of derivatives

    is at x=1 zero at and undefinedat x=0. There are no endpointsin the domain, so the criticalPoints and are the only placeswhere might have an extremevalue.

    Applied Engineering Mathematics

    Applications of derivatives

    rnek

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    rnek

    Applications of derivatives

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    Applications of derivatives

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    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    Optimization ProblemsTo optimize something means to maximize or minimize some aspect of it. What are thedimensions of a rectangle with fixed perimeter having maximum area? What is the leastexpensive shape for a cylindrical can? What is the size of the most profitable productionrun? The differential calculus is a powerful tool for solving problems that call formaximizingor minimizing a function. In this section we solve a variety of optimizationproblems from business, mathematics, physics, and economics.

    Applications of derivatives

    rnekAn open-top box is to be made by cuttingsmall congruent squares from the cornersof a 12-in.-by-12-in. sheet of tin andbending up the sides. Howlarge should thesquares cut from the corners be to makethe boxhold as much as possible?

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    Applications of derivatives

    rnek

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics

    Applications of derivatives

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    Applied Engineering Mathematics

    Applications of derivatives

    rnek

    Applied Engineering Mathematics

    Applications of derivatives

    Applied Engineering Mathematics Applied Engineering Mathematics

    Applied Engineering Mathematics Applied Engineering Mathematics

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    Applied Engineering Mathematics Applied Engineering Mathematics

    Applied Engineering Mathematics Applied Engineering Mathematics

    Applied Engineering Mathematics Applied Engineering Mathematics