Library/CFA (Chartered Financial Analyst)/Derivatives (CFA Program Curriculum 2026 • Level I • Volume 7)/Learning Module 2 Forward Commitment and Contingent Claim Features and Instruments

Learning Module 2 Forward Commitment and Contingent Claim Features and Instruments

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Overview and Definitions5 min
This module distinguishes forward commitments and contingent claims. Forward commitments (forwards, futures, swaps) obligate both counterparties to exchange an underlying (or cash) at agreed terms and have linear payoffs equal to the difference between the underlying price at settlement and the agreed forward price. Contingent claims (options, credit derivatives) give one party the right, but not the obligation, to transact; option payoffs are non-linear and limited on one side. A forward contract price agreed at inception, F0(T), is set so no riskless arbitrage exists relative to spot S0 and the risk-free rate r and incorporates any costs or benefits of ownership (cost of carry).

Key Points

  • Forward commitments are firm obligations with linear payoffs.
  • Contingent claims grant rights (not obligations) and have asymmetric payoffs.
  • Forward price F0(T) enforces no-arbitrage relative to S0 and r.
Payoffs and Profit Profiles5 min
For an asset with no cash flows, a long forward payoff at maturity equals ST - F0(T). A long call option payoff equals max(0, ST - X) and profit equals payoff minus premium (c0). A long put payoff equals max(0, X - ST) and profit equals payoff minus premium (p0). Sellers of options have the mirror payoff and bear counterparty credit exposure for contingent claims until settlement. Firm commitments are linear; contingent claims are non-linear.

Key Points

  • Forward payoff = ST - F0(T).
  • Call payoff = max(0, ST - X); put payoff = max(0, X - ST).
  • Option buyer max loss limited to premium; seller bears potentially large losses.
Replication and Arbitrage5 min
Replication constructs an equivalent cash-and-borrowing position that reproduces a derivative's cash flows. A long forward can be replicated by buying the underlying now and borrowing PV(F0(T)). Arbitrage opportunities exist when identical cash flows trade at different prices or when a known future price does not discount to the observed spot using the risk-free rate. Replication plus no-arbitrage establishes F0(T) relationships.

Key Points

  • Replication equates forward payoff with spot + borrowing/lending positions.
  • No-arbitrage implies S0 = PV of future price discounted at risk-free rate.
  • Arbitrage trades push prices back to no-arbitrage relationships.
Cost of Carry and Spot-Forward Relation6 min
The cost of carry is the net of costs and benefits of owning the underlying (storage, insurance, dividends, coupons, convenience yield). General discrete formula: F0(T) = [S0 - PV(I) + PV(C)](1 + r)^T. In continuous form with rates: F0(T) = S0 e^{(r + c - i)T}. For FX, forward relates to interest-rate differential: F0,f/d(T) = S0,f/d e^{(r_f - r_d)T}. If benefits exceed costs, forward may be below spot; if costs exceed benefits, forward above spot.

Key Points

  • Cost of carry adjusts forward price for income and storage costs.
  • FX forwards depend on interest-rate differentials (covered interest parity).
  • Convenience yield can push futures below cost-inclusive forward price.
Forwards and Futures Valuation6 min
At inception, forward and futures prices are set to prevent arbitrage and typically f0(T) = S0 e^{rT} (or discrete equivalent) adjusted for carry. Forward value at time t is Vt(T) = St - PVt(F0(T)). Futures are mark-to-market daily; margin accounts settle daily gains or losses, resetting the futures contract MTM to zero each day. The cumulative realized gains at maturity are approximately equal between equivalent forward and futures positions, but daily settlement changes cash-flow timing and can produce price differences when interest rates change or are correlated with futures prices.

Key Points

  • Forward MTM equals current spot minus PV of original forward price.
  • Futures are MTM daily with margining; forwards settle at maturity.
  • Cumulative results similar at maturity; pricing may differ due to correlation with rates.
Interest Rate Forwards, FRAs, and Implied Forward Rates6 min
Interest rates have a term structure; zero (spot) rates are bootstrapped from coupon bond prices. The implied forward rate between maturities A and B solves (1+zA)^A (1+IFR)^{B-A} = (1+zB)^B. A forward rate agreement (FRA) fixes the short-term rate for a future period and settles the net interest differential discounted back to the start of the interest period. Interest-rate futures are quoted as 100 minus the rate and have linear BPV payoffs; FRAs settle as discounted cash amounts, creating a convexity/discounting difference between the two instruments.

Key Points

  • Bootstrapping derives zero rates and discount factors.
  • Implied forward rates link spot rates across maturities (no-arbitrage).
  • FRAs settle discounted differentials; interest-rate futures quote 100 - yield.
Swaps and Credit Derivatives5 min
Swaps are series of forward exchanges (e.g., receive fixed, pay floating) and can be valued as a series of FRAs or by discounting expected legs. Credit derivatives (CDS) transfer default risk; protection buyer pays a periodic spread and receives a contingent payment on a credit event equal to LGD times notional. CDS MTM changes with spreads; widening spreads benefit protection buyers.

Key Points

  • Swap value equals net present value of fixed and floating legs.
  • CDS buyer hedges default risk; seller assumes contingent LGD payment.
  • CDS MTM approximated via spread changes and effective duration.
Options and Put-Call Relationships5 min
Options grant rights to buy (call) or sell (put) at strike X. Option intrinsic value and time value determine price prior to maturity. Put-call parity (addressed in related modules) connects calls, puts, forwards, and underlying positions. Buyers pay premium for limited downside and optional upside; sellers receive premium and bear the mirror exposures.

Key Points

  • Call profit = max(0, ST - X) - premium; put profit = max(0, X - ST) - premium.
  • Time to expiration increases option value (time value).
  • Put-call parity links European calls, puts, and forward prices.
Benefits, Risks, and Market Structure5 min
Derivatives allow risk allocation, hedging, leverage, operational efficiency, and price discovery. Risks include leverage, lack of transparency, basis risk, liquidity risk, counterparty credit risk, and systemic concentration in CCPs. OTC markets provide customization; exchanges provide standardization, liquidity, and CCP-backed margining. Central clearing of OTC derivatives has increased standardization of margin and reduced bilateral credit exposures but concentrates risk in CCPs.

Key Points

  • Derivatives expand available strategies and improve market efficiency.
  • Margining and clearing lower bilateral credit risk but concentrate systemic risk.
  • Issuers usually seek hedge accounting; investors focus on NAV/marking.

Questions

Question 1

According to Learning Module 2, what is the payoff at maturity for a long forward contract on an underlying asset with forward price F0(T) when the spot at maturity is ST?

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Question 2

An investor buys a European call with strike X = 50 and premium c0 = 4. At maturity the underlying is ST = 57. What is the investor's profit (ignoring discounting)?

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Question 3

Which equation correctly gives the no-arbitrage forward price for an underlying with spot S0, risk-free rate r (discrete), and no other cash flows, over T periods?

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Question 4

A commodity has S0 = 120, storage cost payable at T equal to 3, and risk-free rate r = 2% for 1 year. What is the one-year forward price F0(T) ignoring convenience yield (discrete compounding)?

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Question 5

Which of these best describes the replication of a long forward position on a non-dividend-paying stock commencing today and maturing at T?

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Question 6

A forward contract to buy 500 shares at F0(T) = 40 was agreed when S0 = 38 and implied r for the period = 5% (discrete) for T = 1. What was the forward price that satisfies no-arbitrage? (Round to two decimals.)

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Question 7

Which of these is a defining operational difference between futures and forwards described in the module?

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Question 8

An option buyer pays premium p0. Under what condition does a long put buyer earn a positive profit at expiry (ignoring time value of money)?

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Question 9

A forward contract on an asset with known dividend D paid at time t1 < T has spot S0 and risk-free rate r. Which expression best gives the forward price F0(T) (discrete compounding) assuming dividend PV is known?

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Question 10

Consider a non-dividend paying stock with S0 = 60. The annualized risk-free rate is 3%, and T = 0.5 years. What forward price F0(T) (discrete)?

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Question 11

In Example 3 of the module, Procam's futures margin account receives daily variation margin. If Procam's futures price rises by $5 per ounce on a day for 100 ounces, how much is credited to margin account that day?

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Question 12

Which statement best characterizes basis risk as defined in the module?

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Question 13

Which hedge accounting designation should a corporation use if it converts variable cash flows on a floating-rate loan into fixed payments using an interest rate swap?

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Question 14

A CDS protection buyer pays a fixed spread to a protection seller. If the underlying issuer's CDS spread widens significantly before a credit event, how does this affect MTM for the buyer and seller?

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Question 15

A three-month USD/EUR forward uses continuous compounding: F0 = S0 * e^{(r_USD - r_EUR)T}. If S0 = 1.10 USD/EUR, r_USD = 0.5% p.a., r_EUR = -0.25% p.a., and T = 0.5, compute F0 approximately.

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Question 16

Which of the following best explains why futures and forward prices may differ for otherwise identical contracts?

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Question 17

An investor holds a long asset position and simultaneously sells a forward at F0(T). If F0(T) > S0 and r > 0, what is the combined (net) return at maturity relative to initial outlay according to the module?

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Question 18

A one-year bond with annual coupon 4% has price 101 per 100 par. The one-year zero rate is therefore approximately?

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Question 19

Using bootstrapping, if a 1-year zero rate z1 = 2% and a 2-year annual coupon bond pays 3% and sells for price 98.5 per 100 par, what is the implied 2-year zero rate z2? (Approximate.)

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Question 20

Which expression gives the implied forward rate IFR_{A,B-A} in terms of zero rates zA and zB (discrete compounding)?

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Question 21

A bank enters a 3m/6m FRA with notional 10,000,000 and agreed fixed rate IFR = 1.5% (actual/360). At settlement the 3-month MRR set at 1.0%. What is the net payment at period end before discounting?

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Question 22

Which of the following best explains the convexity bias between FRA and interest-rate futures?

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Question 23

A farmer wants to hedge the price of 10,000 bushels of wheat to be sold in 6 months. According to the module, which derivative is most appropriate to create a firm commitment to deliver at a pre-agreed price?

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Question 24

An option seller receives premium 6. A call buyer exercises when ST = 60 and strike X = 50. What is the seller's profit per option (ignore discounting)?

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Question 25

Which of the following is a non-cash benefit of holding a physical commodity that can reduce forward/futures prices relative to cost-inclusive levels?

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Question 26

A three-month futures contract on an equity index with S0 = 2,400 has an implied annual dividend yield of 2% and risk-free rate 4% (annual continuous). Using continuous compounding, approximate the futures price f0(T) for T = 0.25 years.

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Question 27

Which statement about option sellers and contingent claims counterparty credit risk is consistent with the module?

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Question 28

A trader notes that futures prices and interest rates are positively correlated. For a long position in the underlying with a choice between a forward and futures, which is preferable per the module and why?

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Question 29

Which of the following best describes a swap from the module perspective?

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Question 30

An investor wants to synthetically create a long forward using options (European) and the underlying at t=0. Which position replicates a long forward per put-call parity theory (ignoring PV of strike)?

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Question 31

A futures contract on gold has daily settlement; at t = 0 a trader posts initial margin 5,000. Over the life of contract the trader experiences daily losses totaling 1,200 paid as margin calls and later receives final margin return of 4,200 at settlement. What is the net cash cost to the trader from margining (sum of cash calls less return)?

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Question 32

A firm's treasurer wants hedge accounting for a derivative that locks cash flows of forecasted foreign sales. Which hedge designation is most appropriate per the module?

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Question 33

A trader can borrow at the risk-free rate r to buy spot asset today S0 and simultaneously sell a forward for delivery at F0(T). If the observed spot S0 is less than discounted known future ST(1 + r)^{-T}, what arbitrage strategy will yield riskless profit per the module?

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Question 34

A CDS contract notional is 10,000,000 and LGD is 60%. If a credit event occurs, what payment does the protection seller owe the buyer?

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Question 35

Which of the following is a correct statement about initial value at inception for a forward or futures contract?

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Question 36

Viswan Family Office owns 10,000 shares and wants to maintain exposure but reduce downside for six months. Which strategy from module best fits: buy put, sell call, or short futures? Choose best single answer.

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Question 37

A forward contract seller has position payoff at maturity of F0(T) - ST. If ST rises by 10%, what happens to seller payoff assuming F0(T) fixed?

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Question 38

Which of the following is TRUE about swap valuation at inception per the module?

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Question 39

If a market's interest rates are constant over time, how do forward and futures prices compare for identical contracts according to the module?

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Question 40

A 6-month forward on a stock with S0=80, expected dividend paid at 3 months of 1.50 (PV discounted at r), and r=2% (annual, discrete). If PV(dividend)=1.49, what is forward F0(T)?

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Question 41

Which of the following best describes the role of a central counterparty (CCP) in derivatives markets according to the module?

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Question 42

A trader estimates an implied forward (1y1y) using z1 = 2% and z2 = 3%. Compute the implied 1-year forward rate starting in 1 year (IFR1,1) approximated.

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Question 43

Which of the following statements about embedded derivatives is consistent with the module?

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Question 44

If a forward contract buyer has value Vt(T) = St - PVt(F0(T)), what sign of Vt(T) indicates a mark-to-market gain to the buyer?

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Question 45

An option buyer paid premium 10 for a put with X = 70. At expiry ST = 65. What is put buyer's profit?

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Question 46

Which scenario best demonstrates price discovery function of derivatives per the module?

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Question 47

An investor sells a put option (short put) and simultaneously takes a short forward with same strike/price equal to F0(T). What combination replicates a covered short position equivalent per relationships in module?

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Question 48

Which of the following best captures 'convenience yield' impact on futures relative to cost-inclusive pricing?

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Question 49

An investor sells a forward on a stock and simultaneously buys the stock S0 financed by borrowing at r. Assuming no other costs and F0(T)=S0(1+r)^T, what is the investor's net wealth at T if ST equals the realized spot?

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Question 50

A futures contract on a short-term rate is quoted as price 98.25. According to the module's expression for interest-rate futures, what is the implied rate?

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