Math/Stats 458 Financial Mathematics for Actuaries II

Math/Stats 458 Financial Mathematics for Actuaries II

Welcome!

Welcome to Math 458 - Financial Mathematics for Actuaries II at Michigan State University. This site has all the class information that you need to be successful. Here you will find the class schedule, its policies, homework and exams details, as well as various opportunities for help & support. In addition, student accomodation information can be found here.


Who, What, When, Where?

Instructor Information Professor Darren E. Mason, Ph.D; Wells Hall C346; masond@msu.edu.
Course Description Utilize modern computational methods to price contracts in insurance and mathematical finance. Rational valuation of derivative securities using put-call parity and calculation of European and American options. Introduce hybrid contracts and features, such as equity-indexed annuities.
Prerequisites Math 361 - Financial Mathematics for Actuaries I and STT 441 - Probability and Statistics I: Probability.
Class Time & Location TR: 2:40PM - 4:00PM in Wells Hall A330.
Student Hours MWF: 9:00AM - 10:00AM; TR: 1:00PM - 2:00PM; Wells Hall C346. See Student Hours for more information.
Text A Discussion of Financial Economics in Actuarial Models - A Preparation for the Actuarial Exam MFE/3 by Marcel B. Finan; Arkansas Tech University; September 13, 2016.

Mathematical Finance: Theory, Review, and Exercises by Emaunuela Rosazza Gianin and Carlo Sgarra; Springer, Second Edition, ISBN: 978-3-031-28377-2, April 18, 2023.
Asking Questions If you have question during class or student hours, I will answer them at that time. If you have questions at other times, you can email them to me. I promise to respond within 24 hours, either by email or in person. DO NOT expect a response after 5pm on any given day as I may be busy with my family. However, I will do my best to be as fast as possible.

Course Policies

Class Schedule

This is a tentative schedule of what we will be covering in Math 458 this semester. In the case of unforeseen delays or modifications to our daily life, its subject to change.


WeekSections CoveredHomeworkDate Due
08/28 - 09/01 Introduction; Course Overview; Review of Derivatives NA NA
09/05 - 09/08Review of Derivatives (continued) 1.4, 1.9, 1.15, 2.6, 2.12, 2.14, 3.2, 3.9, 3.17, 4.4, 4.10, 5.1, 5.5, 5.8, 7.2, 7.5 09/14
09/11 - 09/15Early Exercise of American Options; Monotonicity, and Convexity9.4, 9.6, 10.2, 10.9, 11.4, 11.8, 12.3, 12.7, 13.3, 13.4, 13.9 09/20
09/14Quiz #1 (Sections 1 - 5; 7)NANA
09/18 - 09/22Discrete Time Pricing Models14.1, 14.3, 14.8, 15.1, 15.3, 15.8, 16.1, 16.5, 16.9, 16.10, 17.2, 17.4, 17.9, 18.1, 18.3, 18.7, 19.1, 19.6, 19.9, 20.2, 20.5, 20.9 09/27
09/25 - 09/29Discrete Time Pricing Models (concluded)21.1, 21.5, 23.1, 23.5, 24.2, 24.3, 24.6, 24.8, 25.3, 25.7, 26.1, 26.8 10/04
09/28Quiz #2 (Sections 9 - 20)NANA
10/02 - 10/06The Black-Scholes-Merton Model & The Greeks27.2, 27.6, 28.2, 28.4, 28.6, 28.11, 28.15, 29.2, 29.4, 29.8, 29.1110/11
10/09 - 10/13The Black-Scholes-Merton Model & The Greeks30.1, 30.4, 30.10, 31.3, 31.8, 31.1010/18
10/12Exam #1NANA
10/16 - 10/20The Greeks - Applications32.2, 32.5, 32.10, 32.15 (use ΔB = 3.4), 33.3, 33.5, 34.3 (w/o dividends), 34.610/25
10/23 - 10/24Fall BreakNANA
10/25 - 10/27Option Hedging35.1, 35.6 (use r = 8% in 35.5), 35.8, 36.3, 36.8, 36.12, 37.2, 37.4, 37.7, 38.2, 38.8, 38.111/01
10/30 - 11/03 Lognormal Asset Pricing46.4, 46.11, 46.17, 47.2, 47.4;

Derive the median, mode, and sth-moment E[Ys] of a lognormal variable Y;

47.13, 48.3, 48.11, 49.4, 49.6, 49.1
11/08
11/02Quiz #3 (Sections 29 - 39)NANA
11/06 - 11/10Monte Carlo Simulations; Stochastic Calculus & Applications58.1, 58.4, 58.7, 59.2, 59.5, 59.10, 60.2, 60.5, 60.7, 61.2, 61.4, 61.7 11/21
11/13 - 11/17Stochastic Calculus & Applications (concluded)62.1, 62.4, 64.2, 64.611/28
11/16Exam #2NANA
11/20 - 11/22The Black Scholes Partial Differential Equation65.1, 66.1, 66.4, 67.2, 67.911/28
11/21Quiz #4NA
11/23 - 11/24Thanksgiving BreakNANA
11/27 - 12/01Binary Options; Interest Rate ModelsTBA NA
11/30Quiz #5NANA
12/04 - 12/08Interest Rate Models (concluded)TBA NA
12/13Final Examination; 10:00AM - 12:00PMNANA

Homework

Homework problems from the book are assigned in the schedule portion of this website. Although not collected, you are expected to work out these problems in a dedicated problem book and ask questions as they arise. Numerical answers are in the back of the book. Successful completion of these problems will be of great benefit on required quizzes and examinations.


All homework must satisfy the following requirements:
Advice: Homework assignments in this course vary from being doable in a few minutes to taking considerably longer. Consequently, you should start working on your homework problems as soon as they are assigned. This practice will afford you the time required to understand the material and to ask questions during class/office hours in regards to problems/concepts you may not understand.

Projects

There are four projects during the semester, listed in the below table along with project descriptions.

ProjectTopicDue Date
0Introduction to R09/11
1The Efficient Frontier10/02
2Options & Lognormal Pricing11/13
3Monte Carlo Simulations12/04


Rules of the Game...

Some advice...

Quizzes

There are five quizes during the semester, listed in the below table along with success guides, practice quizzes, and solutions. All section references refer to the MFE Finan text unless specified otherwise.

Quiz Date TopicsPractice QuizSolution
1 09/14Sections 1 - 7PQ1 / PQ1S Q1 Solution
2 09/28Sections 9 - 20PQ2 / PQ2S Q2 Solution
3 11/02Sections 29 - 39PQ3 / PQ3S Q3 Solution
4 11/21Sections 58 - 61PQ4 / PQ4S Q4 Solution
5 11/30TBAPQ5 / PQ5S Q5 Solution

Grading Note: The semeseter quizzes count for 20% of your final grade, with your lowest score being dropped. Hence, each counted quiz is worth approximately 5% of your final grade.

Examinations

The two semester exams for the semester, listed in the below table.

ExamDate TopicsPractice Exam / SolutionSolution
1 Thursday, October 12Sections 1 - 28PE1 / PE1SE1 Solution
2 Thursday, November 16Sections 28 - 39; 46 - 49PE2 / PE2SE2 Solution
Final Wednesday, December 13; 10:00AM - 12:00PMAll Covered MaterialPFE / PFES

Grading Note: The semeseter exams count for 30% of your final grade, with your highest score counting for 20% and your lowest score counting for 10%. More details will be available as the date of each exam appoaches.

Calculators

To be in agreement with the requirements of the Society of Actuaries, the only calcuators that you are allowed to use during examinations and quizzes are the following Texas Instrument Models:

  • BA-35
  • BA-II Plus
  • BA-II Plus Pro
  • TI-30Xa
  • TI-30X II (IIS solar or IIB battery)
  • TI-30XS MultiView (or XB battery)


Computations

The below table contains a variety of functioning Mathematica notebooks corresponding to example problems that have been worked in the classroom (and elsewhere). For your use, Mathematica is widely available across campus in all public labs. You can also get a heavily discounted Mathematica Student License if you want to use the software anytime/anywhere on your PC or Mac. If you are unfamiliar wtih Mathematica, a very nice tutorial is available at here.

Note: Mathematica has extensive online help assistance which makes a manual unnecessary. You are strongly encouraged to avail yourself of these aids.


European Option Pricing Example
Problem 17.8
American Option Pricing Example Problem 19.5
Problem 20.10
Problem 21.10
Random Walks
Problem 26.4
Problem 27.4 Black Scholes Graphs
Problem 28.5
Problem 28.7
Greeks - Delta
Greeks - Gamma
Greeks - Vega
Greeks - Theta
Greeks - Rho Greeks - Psi
Option Elasticity
Problem 35.4

Student Hours


MWF: 0900 - 1000; TR: 1300 - 1400

Student hours is time and space that has been specifically allocated for me (Dr. Mason) to help you (the student) with questions, life, class, or just to talk. You are STRONGLY ENCOURAGED to hang out with me as often as you can. Research demonstrates that their is a solid correlation between good grades and being engaged with class. Student hours is one way to reinforce that connection.

GUIDE TO SUCCESSFUL STUDENT HOURS:

  • Student hours are a place to gain hints on how to think or progress forward through the process of solving a problem or understanding a concept from class. Or to discover where you may have gone awary in your attempted solution. So please come ready to think through a solution with me together!
  • Students hours are NOT a place where you should expect a solution to be laid out for you. Typically on your first visit regarding a problem, I will give a small hint designed to move you in the right direction. Subsequent visits to my office during which you demonstrate that you have given some thought to the prior hint will lead to more extensive hints.
  • hints.

Getting Help

Your best option for getting help is talking to Dr. Mason or to your fellow students. There is no substitute for either a 1-on-1 conversation with your professor or a problem-solving session with your fellow students/colleagues. Mathematics and problem solving, especially in the industrial world, is a collaborative process where ideas are shared. As such, you are strongly encouraged to work together. However, it is imperative that when you write out solutions to problems in your homework, your words are your own and not a copy of someone else.

It is very risky to rely on websites, videos, AI, Chegg, YouTube, and other contemporary sources to replace your learning or for a "quick-fix" to complete an assignment. Such passive delivery sources can be misleading in that they can provide you with a false sense of security - convincing you that you fully understand the material. Remember that 70% of your grade is basd on work you do by yourself in a proctored environment. True understanding is essential to high performance on quizzes and tess.

What Will YOU Learn?

Successful students in Math 458 will, by the end of the class, be able to

  • describe and apply the law of one price, arbitrage-free pricing, put-call parity, and risk-neutral expectation to deriviatves in modeled in continuous time;
  • understand and apply the Black-Scholes-Merton option pricing model to various option combinations, both vanilla and exotic;
  • apply risk managmeent techniques to properly hedge assets and portfolios;
  • employ lognormal distributions to model asset prices evolving via geometric Brownian motion;
  • explain random walks and how they related to Brownian motion;
  • use Monte-Carlo simulations to price options/derivatives.
  • evaluate and construct interest rate models