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ΧΡΗΜΑΤΟΟΙΚΟΝΟΜΙΚΗ ΜΗΧΑΝΙΚΗ
(MAF114) - ΑΧΙΛΛΕΑΣ ΖΑΠΡΑΝΗΣ
Περιγραφή Μαθήματος
This course deals with the theory and applications of financial engineering. Designing, structuring and pricing financial engineering products (including options, futures, swaps and other derivative securities) and their applications to financial and investment risk management. Mathematical methodology that forms the basis of financial engineering, applied stochastic processes and numerical methods in particular. |
Ημερομηνία δημιουργίας
Πέμπτη 3 Δεκεμβρίου 2020
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Instructors
Professor Achilleas Zapranis
Room: ΗΘ427
Telephone: 2310891690
Email: zapranis@uom.edu.grWebsite: http://sites.uom.gr/zapranis/
Course Objectives/Goals
At the end of this course, students should be able to:-
- understand the concepts of no-arbitrage, risk-neutral valuation and parity conditions
- value financial derivatives such as forward, futures, options and swaps
- use financial derivatives in the context of corporate hedging
- discuss the role of financial markets and financial engineering.
To achieve this, the course will have to use some algebra but it will also make use of spreadsheets and simulations in order to help understand the maths.
Instructional Methods
The course comprises 12, 120 minute sessions a day over 12 separate days. Readings are taken from the Chapters in Hull. Hard copies of selected optional readings and PowerPoint slides for each day will be distributed and they will also be available for download from the course web site. You are requested to read the relevant chapters in Hull before each class meeting.
Learning Outcomes
Students should understand the key concepts above and be able to apply a small range of mathematical models within these areas:-
Financial instruments- forwards, forward rate agreements, futures, swaps, (including) options
- calls, puts, caps, floors etc. on some of these assets
- bills, bonds (and other interest rates), stock indices, commodities, currencies and inflation.
Textbooks
Options, Futures and other Derivatives, John C. Hull, Prentice Hall (the latest edition)
It is strongly recommended that you purchase a copy of this text. Weekly readings (chapters) and problems will be drawn from almost all the chapters in the first half of the book (chapters 1 to 16 plus 32 and some of 26, roughly one chapter per session).Further Readings
• Miller, M. H. “Financial innovation: The last twenty years and the next”, The Journal of Financial and Quantitative Analysis, 21 (4) 1986, 459-471.
• Mello, A. S., Parsons, J. E. “Strategic hedging”, Journal of Applied Corporate Finance, 12 (3) 1999.
•Black, F. “Fact and fantasy in the use of options”, Financial Analysts Journal, July-August 1975.
• Black, F., Scholes, M. “The pricing of options as corporate liabilities”, Journal of Political Economy, 81 (3) 1973, 637-654.
• Broadie, M., Detemple, J. “American option valuation: New bounds, approximations, and a comparison of existing methods”, The Review of Financial Studies, 9 (4) 1996, 1211-1250.
• Kon, S. “Model of stock returns – A comparison”, The Journal of Finance, 39 (1) 1984, 147-165.
• Nesbit, M. “Put-call parity theory and an empirical test of the efficiency of the London Traded Options Market”, Journal of Banking and Finance, 16 1992, 381-403.
• Rendleman, R. J., Bartter, B. J. “Two-state option pricing”, The Journal of Finance, 34 (5) 1979, 1039-1110.
•Bigger, N., Hull, J. “The valuation of currency options”, Financial Management”, 12 (1) 1983.
• Cox, J. C., Ross, S. A., and Rubinstein, M. “Option pricing: A simplified approach”, Journal of Financial Economics, 7 October 1979, 229-64.
• Ederington, L. H. and Guan, W. “Why are these options smiling?”, Journal of Derivatives, 10 (2) 2002, 9-34.
• Jackwerth, J. C., Rubinstein, M. “Recovering probability distributions from option prices”, The Journal of Finance, 51 December 1996, 1611-31.Assessment Methods
30% by Coursework (see separate document to be circulated).
70% by Examination
Course Syllabus
Detailed course outline
Week 1
INTRODUCTION TO FINANCIAL ENGINEERING AND DERIVATIVES MARKETSIntroduction to financial engineering Definitions and historical development Characteristics of forwards, futures and options Payoff diagrams
Types of tradersWeek 2
FUTURES: MARKETS AND HEDGING ISSUESThe operation of futures markets Hedging with futures
Hedge ratio
Rolling hedgesWeek 3
FORWARD AND FUTURE PRICINGStock index futures
Forwards and futures on currencies Futures on commodities
Cost of carry
Delivery optionsWeek 4
INTEREST RATE FUTURES: USES AND PRICINGPreliminaries on interest rate futures
Treasury bond, treasury note and treasury bill futures Duration and duration based hedgingWeek 5 SW APS
Interest rate swaps Currency and other swaps V aluation
Credit risk
ExamplesWeek 6
OPTIONS: MARKETS, PRICES AND TRADING STRATEGIESDescription of options and markets
Properties of option prices, limits
Basic trading strategies involving options
Options on stock indices, currencies, futures contractsWeek 7
OPTION PRICING: NUMERICAL PROCEDURESThe Binomial asset pricing model Monte Carlo simulation
Variance reduction
Finite difference methodsWeek 8
OPTION PRICING: BLACK-SCHOLES
Asset price random walks
Markov and Wiener processes, geometric Brownian motion Ito’s lemma
Derivation of the Black-Scholes differential equation
The Black-Scholes model
Risk neutral valuationWeek 9
DERIVATIVES AND ASSET MANAGEMENT: THE GREEK LETTERSNaked and covered positions Stop-loss and delta hedging strategies The Greeks: theta, gamma, rho Portfolio insurance
Week 10
MORE COMPLEX DERIVATIVES AND STRUCTURED FINANCIAL PRODUCTSExotic options
Complex swaps
Credit derivatives
Definition and examples of structured productsWeek 11
CORPORATE APPLICATIONS: REAL OPTIONSCapital investement appraisal
Extention of the risk neutral valuation framework Estimating the market price of risk
Application to the valuation of a new business Evaluating options as an investment opportunityWeek 12
INSURANCE, ENERGY AND WEATHER DERIVATIVESReview of pricing issues Weather derivatives Energy derivatives Insurance derivatives