TEACH YOURSELF VISUALLY CALCULUS PDF

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download Teach Yourself VISUALLY Calculus (Teach Yourself VISUALLY Consumer) on bestthing.info ✓ FREE SHIPPING on qualified orders. 01_ bestthing.info 4/1/08 PM Page i Calculus by Dale Johnson 02_ bestthing.info 4/1/08 PM Page xii. DOWNLOAD PDF Praise for the Teach Yourself VISUALLY Series I just had to let you and your company know how great. UTVKBQ6TSJVL PDF Teach Yourself VISUALLY Calculus (Teach Yourself VISUALLY Consumer). TEACH YOURSELF VISUALLY CALCULUS (TEACH.


Teach Yourself Visually Calculus Pdf

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Teach Yourself VISUALLY Calculus (Teach Yourself VISUALLY Consumer) book (Teach Yourself VISUALLY Consumer) - Free chm, pdf ebooks rapidshare. Visual, Book Condition: New. Brand New, Unread Copy in. Perfect Condition. A+ Customer Service! Summary: Chapter 1: An. Introduction to Limits. To download Teach Yourself VISUALLY Calculus (Teach Yourself VISUALLY Consumer) local library that o ers use of multitude of PDF document assortment.

Efficiency of learning, motivation, inspiration, relevance Yes and The problem is that most parents especially those whose kids are most likely not to have the support to get past these struggles are not exactly ecstatic for their children to be used as experiments. They want concrete answers, fixes, solutions Also, measure success as what? Do you want a standardized test? Do you want to train teachers to effectively measure these concepts?

Do the teachers really understand these concepts? Educational systems are incredibly difficult and complex. Blackboxing them is not easy. You nailed the business case Derivatives of Constant, Power, and Constant Multiple. A function is differentiable if its derivative can be found. This can also be written as: R der.

Using shorthand notation, it can also be written as: It is a special case of the Chain Rule, which will be introduced in Chapter 5. General Power Rule If f is a differentiable function and n is a rational number, then: As in the Product Rule, your Algebra skills will be put to the test. Or in shorthand notation, it can be written as: You found each derivative on the top by using the General Power Rule.

Condition 1: Condition 2: Condition 3: Find f' x. For some number c in a,b , the tangent line and the secant line have equal slope. Here you are merely finding the derivative of the top and then the derivative of the bottom function and then finding the limit of their ratio.

In Chapter 2, you would have divided all terms by x In Chapter 2, you would have found a common denominator. In Chapter 2, you would have factored and reduced. Derivatives of Sine, Cosine, and Tangent. Following this text are some examples of how these two derivatives can be used. Although it is not required that you factor your derivatives, you will find in later chapters that it can be very helpful.

This section discusses the Chain Rule—the tool to do this. The Chain Rule: You could also have just used the General Power Rule. The derivative of y with respect to x equals the product of the derivative of y with respect to u and the derivative of u with respect to x.

Second Form. Derivatives of Natural Logarithmic Functions. The number e is defined many ways, and its approximate value is 2. At right are two of the more common ways of defining the number e. Instead of writing logex, you just write lnx. These can be used to alter the form of a logarithmic expression or equation.

This shows the relationship between natural log equation and an exponential equation. Following these formulas are some examples showing their uses in a variety of applications. Identify the u function. T X 1 Begin with the function. Notice the similarity of these properties to those of the natural logarithmic properties. Property 1: Property 2: Following these derivative formulas are some examples of how those formulas can be put to use.

You apply it to limits of natural log and a variety of other functions. It is restated below for your use: These are called exponential functions, with the base being a constant and an exponent that contains a variable. The base is other than e. The base is e.

Chapter 7 also covers implicit differentiation—finding the derivative of an equation having 2 or more variables for which it may be difficult or impossible to express one of the variables in terms of the other variables. Logarithmic Differentiation. Use logarithmic differentiation when you are finding the derivative of a function such as [f x ] 9 x and discover that both the base and exponent contain variables.

Unfortunately, many relationships are not written explicitly and are only implied by a given equation: These equations are written in implicit form. It may not be possible to change an implicit form into an explicit form. For those cases, you use implicit differentiation. We took to the opposite of both the top and the bottom, thus using fewer symbols in the final answer.

Use the Product Rule on the left and on the right.

Three examples follow—from differentiating a geometric formula, to solving a rate of change problem, to finding the equation of tangent line to a curve the equation of which is stated implicitly. Find the rate of change of the volume at that instant. The bottom of the ladder is 12 feet away from the bottom of the building and is being pulled away from the base of the building at a rate of 1.

Find the rate at which the distance from the top of the ladder to the base of the building is changing. But the answer to the question posed in this problem is that the distance from the top 8 of the ladder to the base of the building is changing at a rate of - 9 ft. From horizontal tangents to equations of lines tangent to a curve, you will move on to critical numbers of a function and how to determine the intervals over which a function is increasing or decreasing.

The chapter continues with finding extrema on a closed interval. From finding minimums and maximums over the complete domain of a function using the first derivative, you will move on to determining concavity, finding inflection points, and verifying relative extrema using the second derivative. Tangent Line to Graph of a Function at a Point. Following is one new example just as a gentle reminder of the process used.

After finding the derivative of a function, you set it equal to zero and then solve for the variable. Tangent lines are horizontal at 3,—1 and 5,—5. You will use the critical numbers to help locate maximums and minimums for a function and inflection points for its graph. Set the denominator equal to 0; this is where f' x is undefined.

You now have a means to determine over which intervals a function is increasing, decreasing, or constant. In the following examples, it is assumed that you will be able to use the appropriate methods to find the derivatives, which will merely be stated but not derived step by step.

See Step 7 at the end of this problem. Always use numbers that will make your computation easy. In this section, you learn how to locate these extrema on a closed interval, rather than on the entire domain of the function.

FAQ Another name for the minimum and maximum is extrema. Note that you are not finding f' x at each critical number.

First Derivative Test You are now ready to find the relative extrema over the entire domain of the function—not just on a closed interval, as in the last section. If f is also differentiable on a,b , except possibly at c, then: Then find f x for each of these x values. So the relative minimum values are 0 and — So the relative maximum value is The relative maximum is 1.

First Derivative Test continued 5 To the right is the graph of f x 2. The points at which the concavity changes up to down, or down to up locate points of inflection. The graph will have two relative minimums and one relative maximum. Locate these points by using f' x and a first derivative chart. Therefore, 0,0 and 2,16 are the points of inflection.

As such, there are no points of inflection. Second Derivative Test Sometimes you can avoid making a first derivative chart when trying to locate the relative minimum or maximum values of a function f. Using both the first and second derivatives allow you to save some time and work. Therefore, - 2 is the relative minimum. Word Problems T he derivative is used to solve many types of word problems in calculus.

The first type of word problem covered in this chapter is optimization, in which you are asked to determine such things as the largest volume or the least cost. The second type of problem contains related rates in which you will find the rate at which the water level in a tank is changing or the rate at which the length of a shadow is changing. The last type of word problem requires you to use the derivative to go from a position function to its velocity and its acceleration functions.

Word Problems 9 chapter A common application of the use of the derivative in calculus is determining the minimum and maximum values of a function which describes a word problem—for example, the largest area, least time, greatest profit, or the most optimal dimensions.

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Find the size of the square that must be cut from each corner in order to produce a box having maximum volume. After the squares are removed from each corner, the aluminum now looks like the figure at right. Use the given volume to find a relationship between h and r. TIP Multiply all terms by r 2 to get rid of the denominator in the last term of the equation. Bus Company Fare Problem A bus company currently carries an average of 8, riders daily.

What fare should the company charge in order to maximize its fare revenue? This is shown at right. Word Problems 9 chapter dy dx dV by using implicit differentiation. You will dy , dt , dt use the same process in this section when two or more related variables are changing with respect In Chapter 7, you found derivatives such as to the same third variable—here, time. Conical Water Tank Problem A conical tank with its vertex down is 8 feet tall and 6 feet across its diameter. If water is flowing into the tank at the rate of 2 ft.

Substitute into the dt derivative and then solve for dh. Word Problems 9 chapter Light Pole and Shadow Problem A 5-foot-tall woman walks at a rate of 4 feet per second away from a foot-tall pole with a light on top of it.

It may seem strange, but the rate at which her shadow is moving away from the pole is independent of her distance from the pole! The tip of her shadow is moving away from the pole at a rate of 48 ft. Word Problems 2 Relate w and L using the red and blue similar right triangles. Rocket Problem A small toy rocket is shot into the air from the top of a tower. The negative velocity indicates that the rocket is moving downward.

Again, the negative indicates that the rocket is moving downward. A particle moves along the x-axis so that its x-coordinate at time t seconds is given by the position function: First, find the velocity function. During what time intervals is the particle moving to the right? Create a first derivative chart, using the numbers obtained in Part A. TIP When the velocity is negative, the particle is moving left.

When the velocity is positive, the particle is moving right. From 0 to 2 seconds: This process is known as integration.

Math, art, and ideas

This chapter covers both the indefinite and definite integrals, along with their properties, as well as the First and Second Fundamental Theorems of Calculus and the Mean Value Theorem. Differentiation versus Integration 10 chapter The process of finding a function from which a given derivative is derived is known as antidifferentiation, or integration.

This section introduces that relationship and covers the indefinite integral and its properties. So it appears that a given function f x has an infinite number of antiderivatives, F x , all differing from each other by just a constant.

What happens? We get a bunch of lines, making a jagged triangle. But if we take thinner rings, that triangle becomes less jagged more on this in future articles. For each possible radius 0 to r , we just place the unrolled ring at that location.

Image from Wikipedia This was a quick example, but did you catch the key idea? We took a disc, split it up, and put the segments together in a different way. Calculus showed us that a disc and ring are intimately related: a disc is really just a bunch of rings. This is a recurring theme in calculus: Big things are made from little things.

And sometimes the little things are easier to work with. A note on examples Many calculus examples are based on physics. Less than once a week, if that.

Series: Teach Yourself Visually

You could build it out of several pipe cleaners, separate them, and straighten them into a crude triangle to see if the math really works. A note on rigor for the math geeks I can feel the math pedants firing up their keyboards.

But does it work in theory? Eat it. That it changed how they saw the world, as it did for him? A premature focus on rigor dissuades students and makes math hard to learn.So many people myself included have stories of, if only I had been exposed to such and such concept in a different way it would have had a much bigger impact.

Logarithmic Differentiation. Notice how the 1 and the 2 were used to get the correct 2 du term. If the policy again serious, you must assemble this number badly or Easily work 15 contact to this site have Strictly.

The folks in the graphics art department were able to turn my hand-drawn colored pencil illustrations and figures into works of art—thus adding great visual clarity to the printed text. Differentiation versus Integration. Feisty, are we? To create a series or add a work to it, go to a "work" page. Case II: Close Send.

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