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Mathematical modeling and applied calculus / Joel Kilty, Alex McAllister.
- Format:
- Book
- Author/Creator:
- Kilty, Joel, author.
- McAllister, Alex M., author.
- Language:
- English
- Subjects (All):
- Mathematical models.
- Physical Description:
- 1 online resource (xiv, 717 pages) : illustrations
- Edition:
- 1st ed.
- Place of Publication:
- Oxford, England : Oxford University Press, [2018]
- Summary:
- Mathematical Modeling and Applied Calculus is a modern take on modeling and calculus aimed at students who need some experience with these ideas.
- Contents:
- Cover
- Mathematical Modeling and Applied Calculus
- Copyright
- Dedication
- Contents
- Preface
- Overview of the Book
- Pedagogical Features
- Course Designs
- Acknowledgments
- Chapter 1. Functions for Modeling Data
- 1.1 Functions
- Tabular Functions and Nonfunctions
- Graphical Functions and Nonfunctions
- Analytic Presentations of Functions
- Piecewise Functions
- Exercises
- 1.2 Multivariable Functions
- 1.3 Linear Functions
- Parameters of Linear Functions
- Monotonicity
- 1.4 Exponential Functions
- Recognizing Exponential Functions Graphically
- Parameters of Exponential Functions
- Concavity
- Algebra of Exponents
- 1.5 Inverse Functions
- Tabular Inverses
- Graphical Inverses
- Existence of Inverses
- Monotonicity and Inverses
- Finding Inverses Algebraically
- 1.6 Logarithmic Functions
- Logarithms as Parametrized Families of Functions
- Algebra of Logarithms
- Logarithms and Exponential Models
- Semi-log Plots and Log-Log Plots
- 1.7 Trigonometric Functions
- Measuring Angles
- Right Triangle Definitions of Trigonometric Functions
- The Unit Circle Definitions of Trigonometric Functions
- Graphs of Trigonometric Functions
- Trigonometric Identities
- Chapter 2. Mathematical Modeling
- 2.1 Modeling with Linear Functions
- Numerically Identifying Linear Data Sets
- Conjecturing Linear Models
- Best Possible Linear Models
- 2.2 Modeling with Exponential Functions
- Numerically Identifying Exponential Data Sets
- Conjecturing Exponential Models
- Best Possible Exponential Models
- 2.3 Modeling with Power Functions
- Graphically Identifying Power Functional Data Sets
- Numerically Identifying Power Functional Data Sets
- Conjecturing Power Function Models.
- Best Possible Power Function Models
- Logarithmic Scale Plots
- 2.4 Modeling with Sine Functions
- The Sine Function
- Parameters of Sine Functions
- Conjecturing Sine Models
- Best Possible Sine Models
- 2.5 Modeling with Sigmoidal Functions
- Parameters of Sigmoidal Functions
- Conjecturing Sigmoidal Models
- Best Possible Sigmoidal Models
- 2.6 Single-Variable Modeling
- Graphically Identifying Reasonable Models
- Context and Choosing Models
- Refining Models Using More Data
- A Limitation of Mathematical Models
- 2.7 Dimensional Analysis
- Fundamental and Derived Dimensions
- Arithmetic with Dimensions and Units
- Solving for Unknown Dimensions
- Generalized Products
- Dimensional Analysis
- Chapter 3. The Method of Least Squares
- 3.1 Vectors and Vector Operations
- Three Vector Operations
- A Geometric Interpretation of Scalar Multiplication
- A Geometric Interpretation of Vector Addition
- An Introduction to Vector Fields
- 3.2 Linear Combinations of Vectors
- Finding Desired Linear Combinations
- Vector Equations as Matrix Equations
- Matrix-Vector Multiplication
- Solving Matrix Equations
- 3.3 Existence of Linear Combinations
- Linear Combinations of Two Vectors
- Linear Combinations of Three or More Vectors
- Linear Combinations and Data Sets
- 3.4 Vector Projection
- The Dot Product
- Geometry of the Dot Product
- Residual Vectors
- Vector Projection
- Understanding Vector Projection
- 3.5 The Method of Least Squares
- Applying the Method of Least Squares
- The Residual Vector of Minimal Length
- Understanding the Method of Least Squares
- Chapter 4. Derivatives
- 4.1 Rates of Change
- Average Rate of Change
- Instantaneous Rate of Change.
- Tangent Line Question and Fermat's Solution
- 4.2 The Derivative as a Function
- Existence of Derivatives
- Dimensions and Derivatives
- Higher-Order Derivatives
- Monotonicity of Functions
- 4.3 Derivatives of Modeling Functions
- Derivatives of Linear Functions
- The Power Rule
- Di↵erentiation and Basic Arithmetic
- Di↵erentiating Other Modeling Functions
- Evidence for Di↵erentiation Rules
- Tangent Lines and Linear Approximations
- 4.4 Product and Quotient Rules
- The Product Rule
- The Quotient Rule
- More Trigonometric Derivatives
- Differentiating with Multiple Rules
- Tabular Functions
- 4.5 The Chain Rule
- Composition of Functions
- The Chain Rule
- Di↵erentiating with Multiple Rules
- Revisiting Extended Di↵erentiation Rules
- Evidence for the Chain Rule
- 4.6 Partial Derivatives
- Approximating Partial Derivatives
- Differentiation Rules and Partial Derivatives
- Higher-Order Partial Derivatives
- Linear Approximation
- 4.7 Limits and the Derivative
- Continuous Functions
- Evaluating Limits at Discontinuities
- Reprise: The Definition of the Derivative
- Chapter 5. Optimization
- 5.1 Global Extreme Values
- Extreme Value Theorem
- Critical Numbers
- Determining Critical Numbers from the Derivative
- Locating Global Extreme Values
- 5.2 Local Extreme Values
- Critical Numbers and Monotonicity
- First Derivative Test
- Revisiting Global Extreme Values
- 5.3 Concavity and Extreme Values
- Concavity and Points of Inflection
- Determining Concavity Graphically
- Determining Concavity from the Second Derivative
- Second Derivative Test
- 5.4 Newton's Method and Optimization
- Applying Newton's Method.
- Starting Values and Ending Criteria
- Determining Points of Intersection
- Optimization Using Newton's Method
- Understanding Newton's Method
- Newton's Method and Dimensions
- 5.5 Multivariable Optimization
- Contour Plots and Extreme Values
- Critical Points
- Multivariable Second Derivative Test
- Global Extreme Values
- 5.6 Constrained Optimization
- The Gradient
- Properties of the Gradient
- Constrained Optimization
- Understanding the Lagrange Multiplier
- Method of Lagrange Multipliers
- Understanding the Method of Lagrange Multipliers
- Chapter 6. Accumulation and Integration
- 6.1 Accumulation
- Left and Right Approximations
- Midpoint Rule
- Obtaining More Accurate Approximations
- Riemann Sums
- 6.2 The Definite Integral
- Net Accumulation and Geometry
- Dimensions and Units of Definite Integrals
- Properties of the Definite Integral
- Understanding the Algebraic Properties of Integrals
- 6.3 First Fundamental Theorem
- The Net Accumulation Function
- The First Fundamental Theorem of Calculus
- Antiderivatives of Modeling Functions
- 6.4 Second Fundamental Theorem
- Using the Second Fundamental Theorem
- Area Between Curves
- Understanding the Fundamental Theorems
- A Partial Proof of the Fundamental Theorems
- 6.5 The Method of Substitution
- Antiderivatives via Substitution
- Substitution with Intermediate Algebra
- The Method of Substitution and Definite Integrals
- Understanding Di↵erentials
- 6.6 Integration by Parts
- Method of Integration by Parts
- Choosing f(x) and g'(x)
- Integration by Parts and Definite Integrals
- Understanding Integration by Parts
- Appendix A. Answer to Questions
- Section 1.1 Questions
- Section 1.2 Questions.
- Section 1.3 Questions
- Section 1.4 Questions
- Section 1.5 Questions
- Section 1.6 Questions
- Section 1.7 Questions
- Section 2.1 Questions
- Section 2.2 Questions
- Section 2.3 Questions
- Section 2.4 Questions
- Section 2.5 Questions
- Section 2.6 Questions
- Section 2.7 Questions
- Section 3.1 Questions
- Section 3.2 Questions
- Section 3.3 Questions
- Section 3.4 Questions
- Section 3.5 Questions
- Section 4.1 Questions
- Section 4.2 Questions
- Section 4.3 Questions
- Section 4.4 Questions
- Section 4.5 Questions
- Section 4.6 Questions
- Section 4.7 Questions
- Section 5.1 Questions
- Section 5.2 Questions
- Section 5.3 Questions
- Section 5.4 Questions
- Section 5.5 Questions
- Section 5.6 Questions
- Section 6.1 Questions
- Section 6.2 Questions
- Section 6.3 Questions
- Section 6.4 Questions
- Section 6.5 Questions
- Section 6.6 Questions
- Appendix B. Answers to Odd-Numbered Exercises
- Section 1.1 Exercises
- Section 1.2 Exercises
- Section 1.3 Exercises
- Section 1.4 Exercises
- Section 1.5 Exercises
- Section 1.6 Exercises
- Section 1.7 Exercises
- Section 2.1 Exercises
- Section 2.2 Exercises
- Section 2.3 Exercises
- Section 2.4 Exercises
- Section 2.5 Exercises
- Section 2.6 Exercises
- Section 2.7 Exercises
- Section 3.1 Exercises
- Section 3.2 Exercises
- Section 3.3 Exercises
- Section 3.4 Exercises
- Section 3.5 Exercises
- Section 4.1 Exercises
- Section 4.2 Exercises
- Section 4.3 Exercises
- Section 4.4 Exercises
- Section 4.6 Exercises
- Section 4.7 Exercises
- Section 5.1 Exercises
- Section 5.2 Exercises
- Section 5.3 Exercises
- Section 5.4 Exercises
- Section 5.5 Exercises
- Section 5.6 Exercises
- Section 6.1 Exercises
- Section 6.2 Exercises
- Section 6.3 Exercises
- Section 6.4 Exercises
- Section 6.5 Exercises
- Section 6.6 Exercises.
- Appendix C. Getting Started with RStudio.
- Notes:
- Description based on print version record.
- Description based on publisher supplied metadata and other sources.
- ISBN:
- 9780192558138
- 0192558137
- OCLC:
- 1119640075
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