Lecture Financial modeling - Topic 4: Portfolio risk-return optimization. In this chapter students will compute optimal portfolio weights that combine risky portfolios and risk free assets, compute efficient (max return/min risk) and optimal risky portfolios, compute optimal complete portfolios that combine a risk free asset or borrowing.
Chapter 5 - Portfolio risk and return (Part I). In this chapter, we will explore the process of examining the risk and return characteristics of individual assets, creating all possible portfolios, selecting the most efficient portfolios, and ultimately choosing the optimal portfolio tailored to the individual in question.
In Chapter 8 we discussed optimal risky portfolios. That decision governs how an investor chooses between risk-free assets and “the” optimal portfolio of risky assets. This chapter explains how to construct that optimal risky portfolio. We begin with a discussion of how diversification can reduce the variability of portfolio returns. After establishing this basic point, we examine efficient diversification strategies at the asset allocation and security selection levels.
Single period market models are the most elementary market models.
Only a single period is considered. The beginning of the period is usually
denoted by the time t = 0 and the end of the period by time t = 1.
At time t = 0 stock prices, bond prices,possibly prices of other financial
assets or specific financial values are recorded and the financial agent
can choose his investment, often a portfolio of stocks and bond. At time
t = 1 prices are recorded again and the financial agent obtains a payoff
corresponding to the value of his portfolio at time t = 1....
Chapter 6 - Portfolio risk and return (Part II). The topics discussed in this chapter are: Portfolio risk and return, optimal risky portfolio and the capital market line (CML), return-generating models and the market model, systematic and non-systematic risk, capital asset pricing model (CAPM) and the security market line (SML), performance measures, arbitrage pricing theory (APT) and factor models.
Expected asset risk measures are needed to construct optimal portfolios, plan for retirement, value equities and options, and forecast corporate cash flow distributions. In this lecture, students will: Compute asset return variance and standard deviation, scale standard deviations across time, compute moving average volatility, compute volatility using EWMA models, compute implied volatility using the black-scholes option pricing model.
Topic 11 - Fixed income portfolio optimization. After completing this topic, you should be able to: Manage the interest rate risk of fixed income portfolios; compute portfolio value, income, duration, convexity compute effective duration; optimize liabilities funding (pension) using duration and convexity; optimize fixed income portfolios using duration and convexity.
Topic 4 - Modeling portfolio risk, return, and VaR. In this chapter, the learning objectives are: Compute portfolio return, risk, var using excel and matrix operations; compute optimal portfolios; computing VaRs and Confidence Intervals using @Risk.
In this chapter, students understand and can recall the process of portfolio construction and optimization; students can compute n-asset portfolio mean, volatility, and sharpe ratios; optimal combined portfolios that combine risky and risk-free assets.
Strategic Corporate Finance provides a ‘‘real-world’’ application of the
principles of modern corporate finance, with a practical, investment
banking advisory perspective. Building on 15 years of corporate finance
advisory experience, this book serves to bridge the chronic gap between
corporate finance theory and practice. Topics range from weighted average
cost of capital, value-based management and M&A, to optimal capital
structure, risk management and dividend/buyback policy.
The favorable reception of Portfolio Management Formulas exceeded even the greatest expectation I ever had for the book. I had written it to
promote the concept of optimal f and begin to immerse readers in portfolio theory and its missing relationship with optimal f.
Besides finding friends out there, Portfolio Management Formulas was surprisingly met by quite an appetite for the math concerning money
management. Hence this book. I am indebted to Karl Weber, Wendy Grau, and others at John Wiley & Sons who allowed me the necessary latitude
this book required....
Strategic Corporate Finance provides a ‘‘real-world’’ application of the principles of modern corporate finance, with a practical, investment banking advisory perspective. Building on 15 years of corporate finance advisory experience, this book serves to bridge the chronic gap between corporate finance theory and practice. Topics range from weighted average cost of capital, value-based management and M&A, to optimal capital structure, risk management and dividend/buyback policy.
In everyday life we are often forced to make decisions involving risks and
perceived opportunities. The consequences of our decisions are affected by the
outcomes of random variables that are to various degrees beyond our control. Such
decision problems arise, for instance, in financial and insurance markets.
This book presents and develops major numerical methods currently used for solving
problems arising in quantitative finance. Our presentation splits into two parts.
Part I is methodological, and offers a comprehensive toolkit on numerical methods
and algorithms. This includes Monte Carlo simulation, numerical schemes for
partial differential equations, stochastic optimization in discrete time, copula functions,
transform-based methods and quadrature techniques.
Part II is practical, and features a number of self-contained cases.
Chris Adcock is Professor of Financial Econometrics in the University of Sheffield. His
career includes several years working in quantitative investment management in the
City and, prior to that, a decade in management science consultancy. His research
interests are in the development of robust and non-standard methods for modelling
expected returns, portfolio selection methods and the properties of optimized portfolios.
He has acted as an advisor to a number of asset management firms. He is the
founding editor of the European Journal of Finance.
If successful, this book will change your idea about what an optimal investment
portfolio is. It is intended to be a guide both to understanding
irrational investor behavior and to creating individual investors’ portfolios
that account for these irrational behaviors. In this book, an optimal portfolio
lies on the efficient frontier, but it may move up or down that frontier
depending on the individual needs and preferences of each investor.
Evaluating mutual fund performance is a topic of long-standing interest in the academic
literature, but few if any studies have addressed the selection of an optimal portfolio of funds.
Instead of using the historical data to estimate performance measures or produce fund rank-
ings, this study uses the data to explore the mutual-fund investment decision.
Asset allocation investigates the optimal division of a portfolio among different asset
classes. Standard theory involves the optimal mix of risky stocks, bonds, and cash
together with various subdivisions of these asset classes. Underlying this is the insight
that diversification allows for achieving a balance between risk and return: by using
different types of investment, losses may be limited and returns are made less volatile
without losing too much potential gain.
Interest income is the most important source of revenue for most of the
banks. The aim of this paper is to assess the impact of dierent interest rate
scenarios on the banks' interest income. As we do not know the interest rate
sensitivity of real banks, we construct for each bank a portfolio with a similar
composition of its assets and liabilities, called 'tracking bank'. We evaluate the
eect of 260 historical interest rate shocks on the tracking banks of German
savings banks and cooperative banks.
In recent years, the credit derivatives market has become extremely active. Especially
credit default swaps (CDSs) and collateralized debt obligations (CDOs) have contributed
to what has been an amazing development.
The most important benefit of credit derivatives is their ability to transfer the credit
risk of an arbitrary number of obligors in a simple, efficient, and standardized way, giving
rise to a liquid market for credit risk that can be easily accessed by many market