Kropko J. Mathematics for Social Scientists 2016
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Textbook in PDF format Written for social science students who will be working with or conducting research, Mathematics for Social Scientists offers a non-intimidating approach to learning or reviewing math skills essential in quantitative research methods. The text is designed to build students’ confidence by presenting material in a conversational tone and using a wealth of clear and applied examples. Author Jonathan Kropko argues that mastering these concepts will break students’ reliance on using basic models in statistical software, allowing them to engage with research data beyond simple software calculations. Acknowledgments About the Author Introduction Algebra, Precalculus, and Probability Algebra Review Numbers Fractions Addition and Subtraction Multiplication Division Exponents Roots Logarithms Summations and Products Solving Equations and Inequalities Isolating a Variable Distribution and Factoring Solving Quadratic Equations Solving Inequalities Exercises Sets and Functions Set Notation Intervals Venn Diagrams Functions Function Compositions and Inverses Graphs Domain and Range Polynomials Linear Functions and Linear Graphs Higher-Order Polynomials Linear Regression Exercises Probability Events and Sample Spaces Properties of Probability Functions Equally Likely Outcomes Unions of Events Independent Events Complement Events Counting Theory Multiplication Factorials Combinations and Permutations Sampling Problems Sampling Without Replacement Sampling With Replacement Conditional Probability Bayes’ Rule Exercises Calculus Limits and Derivatives What Is a Limit? Continuity and Asymptotes Solving Limits The Number e Point Estimates and Comparative Statics Definitions of the Derivative Notation Shortcuts for Finding Derivatives The Chain Rule Exercises Optimization Terminology Finding Maxima and Minima The Newton-Raphson Method Exercises Integration Informal Definitions of an Integral Riemann Sums Integral Notation Solving Integrals Solving Indefinite Integrals Solving Definite Integrals Advanced Techniques for Solving Integrals u-Substitution Integration by Parts Improper Integrals Probability Density Functions Moments Exercises Multivariate Calculus Multivariate Functions Multivariate Limits Partial Derivatives Definition and Notation Gradients and Hessians Optimization Finding the Best-Fit Line for Linear Regression Lagrange Multipliers Multiple Integrals Notation Solving Multiple, Definite Integrals Solving Multiple, Indefinite Integrals Joint Probability Distributions and Moments Exercises Linear Algebra Matrix Notation and Arithmetic Matrix Notation Types of Matrices Matrix Arithmetic Transpose Trace Addition and Subtraction Scalar Multiplication Kronecker Product Vector Multiplication Matrix Multiplication Checking Conformability Computing the Product Geometric Representation of Vectors and Transformation Matrices Elementary Row and Column Operations Exercises Matrix Inverses, Singularity, and Rank Inverse of a (2 2) Matrix Inverse of a Larger Square Matrix The Adjoint Matrix Determinants Multiple Regression and the Ordinary Least Squares Estimator Singularity, Rank, and Linear Dependency Singularity Linear Dependency Rank Exercises Linear Systems of Equations and Eigenvalues Nonsingular Coefficient Matrices Solving by Taking a Matrix Inverse Solving by Using Elementary Row Operations Singular Coefficient Matrices Systems With No Solution Systems With Infinitely Many Solutions Homogeneous Systems Eigenvalues and Eigenvectors Finding Eigenvalues Positive-Definite and Negative-Definite Matrices Finding Eigenvectors Statistical Measurement Models [id=JK]PrincipalPrinciple Components Analysis Correspondence Analysis Exercises Conclusion: Taking the Math With You As You Proceed Through Your Program Index