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FRM Part 1 - Book 4 - Valuation and Risk Models (Part 2/2)
Rating: 4.7 out of 5(86 ratings)
1,785 students

FRM Part 1 - Book 4 - Valuation and Risk Models (Part 2/2)

FRM Course by Prof. James Forjan, PhD
Created byAnalyst Prep
Last updated 6/2020
English

What you'll learn

  • FRM Part 1 - Book 4 - Valuation and Risk Models (Part 2/2)

Course content

1 section8 lectures4h 21m total length
  • Pricing Conventions, Discounting, and Arbitrage28:41

    After completing this reading, you should be able to:

    • Define discount factor and use a discount function to compute present and future values.

    • Define the “law of one price,” explain it using an arbitrage argument, and describe how it can be applied to bond pricing.

    • Identify arbitrage opportunities for fixed income securities with certain cash flows.

    • Identify the components of a US Treasury coupon bond, and compare and contrast the structure to Treasury STRIPS, including the difference between P-STRIPS and C-STRIPS.

    • Construct a replicating portfolio using multiple fixed income securities to match the cash flows of a given fixed-income security.

    • Differentiate between “clean” and “dirty” bond pricing and explain the implications of accrued interest with respect to bond pricing.

    • Describe the common day-count conventions used in bond pricing.

  • Interest Rates27:26

    After completing this reading, you should be able to:

    • Calculate and interpret the impact of different compounding frequencies on a bond’s value.

    • Define spot rate and compute spot rates given discount factors.

    • Interpret the forward rate and compute forward rates given spot rates.

    • Define the par rate and describe the equation for the par rate of a bond.

    • Interpret the relationship between spot, forward, and par rates.

    • Assess the impact of maturity on the price of a bond and the returns generated by bonds.

    • Define the “flattening” and “steepening” of rate curves and describe a trade to reflect expectations that a curve will flatten or steepen.

    • Describe a swap transaction and explain how a swap market defines par rates.

    • Describe overnight indexed swap (OIS) and distinguish OIS rates from LIBOR swap rates.

  • Bond Yields and Return Calculations22:20

    After completing this reading, you should be able to:

    • Distinguish between gross, and net realized returns and calculate the realized return for a bond over a holding period, including reinvestments.

    • Define and interpret the spread of a bond and explain how to derive a spread from a bond price and a term structure of rates.

    • Define, interpret, and apply a bond’s yield-to-maturity (YTM) to bond pricing.

    • Compute a bond’s YTM, given a bond structure and price.

    • Calculate the price of an annuity and perpetuity.

    • Explain the relationship between spot rates and YTM.

    • Define the coupon effect and explain the relationship between the coupon rate, YTM, and bond prices.

    • Explain the decomposition of P&L for a bond into separate factors, including carry roll-down, rate change, and spread change effects.

    • Explain the following four common assumptions in carry roll-down scenarios: realized forwards, unchanged term structure, consistent yields and realized expectations of short-term rates; and calculate carry roll down under these assumptions.

  • Applying Duration, Convexity, and DV0145:47

    After completing this reading you should be able to:

    • Describe an interest rate factor and identify common examples of interest rate factors.

    • Define and compute the DV01 of a fixed income security given a change in yield and the resulting change in price.

    • Calculate the face amount of bonds required to hedge an option position given the DV01 of each.

    • Define, compute, and interpret the effective duration of a fixed income security given a change in yield and the resulting change in price.

    • Compare and contrast DV01 and effective duration as measures of price sensitivity.

    • Define, compute, and interpret the convexity of a fixed income security given a change in yield and the resulting change in price.

    • Explain the process of calculating the effective duration and convexity of a portfolio of fixed income securities.

    • Explain the impact of negative convexity on the hedging of fixed income securities.

    • Construct a barbell portfolio to match the cost and duration of a given bullet investment, and explain the advantages and disadvantages of bullet versus barbell portfolios.

  • Modeling and Hedging Non-Parallel Term Structure Shifts45:59

    After completing this reading you should be able to:

    • Describe and assess the major weakness attributable to single-factor approaches when hedging portfolios or implementing asset liability techniques.

    • Define key rate exposures and know the characteristics of key rate exposure factors including partial ‘01s and forward-bucket ‘01s.

    • Describe key-rate shift analysis.

    • Define, calculate, and interpret key rate ‘01 and key rate duration.

    • Describe the key rate exposure technique in multi-factor hedging applications; summarize its advantages and disadvantages.

    • Calculate the key rate exposures for a given security, and compute the appropriate hedging positions given a specific key rate exposure profile.

    • Relate key rates, partial ‘01s and forward-bucket ‘01s, and calculate the forward-bucket ‘01 for a shift in rates in one or more buckets.

    • Construct an appropriate hedge for a position across its entire range of forward-bucket exposures.

    • Apply key rate and multi-factor analysis to estimating portfolio volatility.

  • Binomial Trees19:57

    After completing this reading you should be able to:

    • Calculate the value of an American and a European call or put option using a one-step and two-step binomial model.

    • Describe how volatility is captured in the binomial model.

    • Describe how the value calculated using a binomial model converges as time periods are added.

    • Define and calculate delta of a stock option.

    • Explain how the binomial model can be altered to price options on: stocks with dividends, stock indices, currencies, and futures.

  • The Black-Scholes-Merton Model38:36

    After completing this reading you should be able to:

    • Explain the lognormal property of stock prices, the distribution of rates of return, and the calculation of expected return.

    • Compute the realized return and historical volatility of a stock.

    • Describe the assumptions underlying the Black-Scholes-Merton option pricing model.

    • Compute the value of a European option using the Black-Scholes-Merton model on a non-dividend-paying stock.

    • Define implied volatilities and describe how to compute implied volatilities from market prices of options using the Black-Scholes-Merton model.

    • Explain how dividends affect the decision to exercise early for American call and put options.

    • Compute the value of a European option using the Black-Scholes-Merton model on a dividend-paying stock.

    • Describe warrants, calculate the value of a warrant, and calculate the dilution cost of the warrant to existing shareholders.

  • Option Sensitivity Measures: The “Greeks”32:21

    After completing this reading you should be able to:

    • Describe and assess the risks associated with naked and covered option positions.

    • Describe the use of a stop loss hedging strategy, including its advantages and disadvantages and explain how this strategy can generate naked and covered option positions.

    • Describe delta hedging for an option, forward, and futures contracts.

    • Compute the delta of an option.

    • Describe the dynamic aspects of delta hedging and distinguish between dynamic hedging and hedge-and-forget strategy.

    • Define and calculate the delta of a portfolio.

    • Define and describe theta, gamma, vega and rho for option positions and calculate the gamma and vega for a portfolio.

    • Explain how to implement and maintain a delta-neutral and a gamma-neutral position.

    • Describe the relationship between delta, theta, gamma, and vega.

    • Describe how portfolio insurance can be created through option instruments and stock index futures.

Requirements

  • No requirement

Description

In this course, Prof. James Forgan, PhD summarizes the last 9 chapters from the Valuation and Risk Models book so you can learn or review all of the important concepts for your FRM part 1 exam. James Forjan has taught college-level business classes for over 25 years.

This course includes the following chapters:

9. Pricing Conventions, Discounting, and Arbitrage

10. Interest Rates

11. Bond Yields and Return Calculations

12. Applying Duration, Convexity, and DV01

13. Modeling and Hedging Non-Parallel Term Structure Shifts

14. Binomial Trees

15. The Black-Scholes-Merton Model

16. Option Sensitivity Measures: The “Greeks”

Who this course is for:

  • FRM part 1 candidates