Session1-slides
Course Overview
Session Information
Course Title: Mathematics 1 for Economics and Finance
Instructor: Emiliano Traversi
Program: ESSEC BBA Program - Fall 2024
Attendance and Grading
Attendance Policy
Mandatory attendance with a maximum of two unexcused absences allowed.
Grading Breakdown
Class Attendance and Quizzes: 40% of final grade
Midterm Exam: 30% of final grade
Final Exam: 50% of final grade
Course Objectives
Introduction to essential mathematical concepts:
Functions
Limits
Derivatives
Integrals
Understanding optimization as a core concept in decision-making.
Mastering financial calculus, crucial for corporate finance decision-making.
Teaching Materials
Resources:
K. Sydsaeter et al., "Essential Mathematics for Economic Analysis, 5th Edition"
A. Chiang and K. Wainwright, "Fundamental Methods of Mathematical Economics, 4th Edition"
C.P. Simon and L. Blume, "Mathematics for Economists"
T. Bradley, "Essential Mathematics for Economics and Business, 3rd Edition"
E. Haeussler et al., "Introductory Mathematical Analysis for Business, Economics and the Life and Social Sciences"
R.A. Brealey and S.G. Myers, "Principles of Corporate Finance"
I. Jacques, "Mathematics for Economics and Business, 5th Edition"
Course Agenda
Summary of Sessions
Session 1: Functions of one variable and graphs
Sessions 2-3: Differentiation
Session 4: Optimization (univariate functions)
Session 5: Integration
Session 6: Counting and sum calculus
Session 7: Matrix algebra
Session 8: Determinants
Session 9: Inverse matrices
Session 10: Systems of linear inequalities
Sets and Functions
Basic Definitions
Set: A collection of objects, with elements denoted as a ∈ S.
Example Sets:
Positive integers: {1, 2, 3, ...}
Prime numbers: {2, 3, 5, 7, 11, ...}
Common Sets in Course:
Natural numbers (N)
Integer numbers (Z)
Rational numbers (Q)
Real numbers (R)
Irrational numbers (R \ Q)
Complex numbers (C)
Properties of Real Numbers
Transitive Property: If a = b and b = c, then a = c.
Commutative Properties: a + b = b + a and a·b = b·a.
Associative Properties: a + (b + c) = (a + b) + c and a·(b·c) = (a·b)·c.
Inverse Properties: Additive inverse a + (−a) = 0; Multiplicative inverse for a ≠ 0.
Distributive Property: a·(b + c) = (a·b) + (a·c).
Functions
Definition and Properties
A function is a relationship that assigns each input exactly one output: y = f(x).
Domain: Set of all inputs.
Range: Set of all outputs.
Real functions in this course will involve real numbers.
Special Functions
Polynomial Functions: Defined by degrees, where the general form includes coefficients.
Quadratic Function: f(x) = ax² + bx + c.
Exponential Function: y = ax with special case y = e^x.
Logarithmic Function: The inverse of exponentiation, defined by y = log_b(x).
Practical Examples
Production Functions
General Model: Q = f(K, L, M, P, C...) where Q represents quantity produced.
Cobb-Douglas Production Function: Q = A * L^α * K^β with A > 0, 0 < α < 1, 0 < β < 1.
Linear Demand Function
Depicted as Q = f(P) = a - bP; the relationship is linear with respect to price.
Inverse function: P = f⁻¹(Q) = (a - Q) / b.
Exercises
Examples and Practice Questions
Evaluate functions like f(x) = 3x² - x + 5 at given points.
Apply Vieta’s Formulas to find solutions of quadratic equations.
Calculate exponential growth as seen in population predictions.
This summary encapsulates the key concepts, attendance policies, and course objectives important for the successful navigation of the Mathematics 1 for Economics and Finance course.