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Calculus for Business: 3 hrs. Fundamental aspects of calculus are covered with applications in business and economics. The topics covered include limits, differentiation, integration, and some multivariate calculus. (PR: MTH 123 or equivalent, or Mathematics ACT or at least 27)
Course Objectives
1. To provide the student with an understanding of the fundamental concepts in differential and integral calculus, with a particular emphasis on their applications in business and economics.
2. To further develop the student's problem solving skills, so that they may apply the techniques learned in this course in a variety of situations.
Course Contents
All material in this course should be presented with an emphasis of its application, particularly to problems in business and economics.
The Derivative
Rate of change and slope as a motivation for both the concept of a limit and the concept of a derivative. Limits and their evaluation. The derivative as a limit of difference quotients and its interpretation as a slope and weight of change. Techniques of differentiation, including the power rule, product and quotient rules, and the power form of the chain rule. Marginal analysis and the derivative as a representation of marginal quantities.
Graphing and Optimization
Understanding of the relationship between the graph of a function and its first and second derivatives. Relative extrema and concavity. Curve sketching. Maximizing and minimizing functions, with particular attention to optimization problems with applications in business and economics.
Derivatives of Exponential and Logarithmic Functions
The constant e and its realization from considering continuously compounded interest. Differentiation of Logarithmic and Exponential functions, combination of new derivative rules with the product and quotient rules, and the general form of the chain rule.
Integration
Antiderivatives and indefinite integrals as the reverse process of differentiation. Integration by substitution as an inverse to the chain rule. (First order separable) differential equations and the exponential growth law. Area and definite integrals, and the interpretation in terms of marginal analysis and total change of a function. Formalization of these latter ideas and the definite integral as a limit of a sum. Fundamental Theorem of Calculus.
Applications of Integration
Area between curves. Continuous income streams. Consumers and Producers Surplus.
Multivariate Calculus
Functions of two or more variables. First and higher order partial derivatives.
Maxima and Minima of functions of two variables using the first and second
partial derivatives. Lagrange multipliers and constrained optimization.
Textbook: Applied Mathematics for Managerial,
Life, and Social Sciences ( 3rd Edition by Tan)
Graphing Calculators
Graphing calculator policy is left to individual instructors. Instructors who choose to incorporate graphing calculators in the course are encouraged to ensure that all students complete the course with sufficient "by hand" skills.
Assessments
Students will be evaluated on their fulfillment of the course objectives
by (approximately) three in-class exams and one final exam, which is recommended
to be comprehensive. Instructors may also include graded homework, quizzes,
projects, grades for attendance and class participation, or other means
of assessment.
| Week | Dates
Fall 2005 |
Sections covered and suggested topics |
| 1 | 9.1 average rate of change and average velocity
instantaneous rate of change and velocity concept of a limit: numerical and graphic examples of how a limit can fail to exist algebraic properties of limits finding (limit f(x) as x approaches c) by - plugging in x = c - techniques to find limits 0/0-type limits in rational expressions - when a radical appears, multiplying by a conjugate in numerator and denominator finding limit of a rational
function as 9.2 notation for right hand and left hand limits a function fails to have a limit if right hand and left hand limits do not agree definition of continuity at a point on an open interval: analyzing the graph at a discontinuity point to decide which conditions from the definition fail determining whether or not a piecewise function is continuous (continued) |
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| 2 | 9.2 algebraic properties of continuous functions
determining where a rational function has discontinuities Intermediate Value Theorem 9.3 limit of slope of secant line is equal to the slope of the tangent line formal definition of derivative |
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| 3 | 9.3 applications of derivatives
- slope of tangent line, also finding the equation of the tangent line using slope-point form - instantaneous rate of change how a derivative can fail to exist; sharp edges, vertical tangent lines, and discontinuity points 9.4 rules for finding derivatives - constant funcion rule, power rule, constant times a function rule, sum/difference rule more applications of derivatives - velocity, rate of change |
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| Week | ||
| 4 | 9.5 product rule and quotient rule
finding higher derivatives and using notation for higher derivatives Exam 1 |
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| 5 | 9.6 Chain rule, including the general power rule
problems which combine product, quotient and chain rules 9.7 the constant "e" derivatives of e x and ln x derivatives involving products and quotients of e x and ln x Chain rule for exponential and logarithmic functions |
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| 6 | 9.8 marginal cost vs. the exact cost of producing one
additional item
computing marginal cost, marginal revenue and marginal profit average cost, average revenue, and average profit 10.1 using f ' "sign charts" to find intervals where f is increasing or decreasing finding critical values (i.e. critical points) for a function f (continued) |
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| 7 | 10.1 local (i.e. relative) extrema vs. absolute extrema
critical values are canidates for where local maxima and minima occur 1st derivative "sign chart" test for local extrema 10.2 how concavity is related to the 2nd derivative points of inflection using 2nd derivative sign charts to indentify concavity and points of inflection the 2nd derivative test for local maxima and local minima curve sketching using 1st and 2nd derivative sign charts |
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| 8 | 10.3 sketching graphs of polynomials using 1st and 2nd derivative
sign charts
finding horizontal and vertical asymptotes for rational functions sketching graphs of rational functions using 1st and 2nd derivativer sign charts |
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| 9 | Exam 2
10.4 finding absolute extrema on closed intervals related max-min word problems |
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| 10 | 10.5 understanding when a local maximum or minimum is absolute
applying the 2nd derivative test for local extrema to find absolute extrema on open intervals knowing when the 2nd derivative test is inconclusive related max-min word problems 11.1 antiderivatives indefinite intergral: using the notation; the arbitrary constant rules for computing indefinite integrals of powers, a constant times a function, sums and differences antiderivatives of e to the power of x and 1/x finding a general solution
to a simple 1st order differential equation and finding a particular
solution to an initial value problem
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| Week | Sections covered and suggested topics | |
| 11 | 11.2 differential of a function
using the method of u-substitution to compute indefinite integrals: when and how to do it 11.3 summing up the areas of rectangles to approximate the area under a graph - approximations using 4 rectangles - using right or left hand endpoints to determine the heights of the rectangles definition of a definite integral |
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| 12 | 11.4 using the Fundamental Theorem of Calculus
to evaluate definite integrals
computing area under a graph by evaluating definite integrals 11.5 special properties of definite integrals definite integral problems which involve u-substitution application of definite integrals - finding a total change by integrating the rate of change - computing average value of a function on an interval business applications |
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| 13 | Exam 3
11.6 using definite integrals to compute area between a curve and the x-axis computing the area between two curves |
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| 14 | 11.7 consumers and producers surplus
12.1 evaluating and graphing functions of two ( or more ) independent variables 12.2definition of partial derivatives with respect to x , with respect to y how to compute partial derivatives 2nd order and mixed partial derivatives |
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| 15 | 12.3 local maximum, local minimum and saddle points in graph of a function
of
two variables finding critical points for functions of two variables 2nd derivative Test for Local Extrema for functions of two variables |
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