54
31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001) K. Cuthbertson and D. Nitzsche Version 1/9/2001

31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

Embed Size (px)

Citation preview

Page 1: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Lecture

Swaps (Interest and Currency)

FINANCIAL ENGINEERING:DERIVATIVES AND RISK MANAGEMENT(J. Wiley, 2001)

K. Cuthbertson and D. Nitzsche

Version 1/9/2001

Page 2: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Topics Interest Rate Swaps

Introduction

Altering Cash Flows with a Swap

Cash Flows, Comparative Advantage and

Gains in the Swap

Valuation/Pricing a Swap (as bond portfolio)

Page 3: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Introduction

Page 4: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Introduction

• Swaps are privately arranged contracts in which parties agree to exchange cash flows.

• Swap contracts originated in about 1981.

• Largest markets is in interest rate swaps, but currency swaps are also actively traded.

• Most common type of interest rate swap is ‘Plain vanilla’ or fixed-for floating rate swap.

Page 5: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Interest Rate Swaps

• Swaps can be used …

… to alter a series of floating rate payments (or

receipts). … to reduce interest rate risk of financial

institutions Swaps are used by some firms who can borrow

relatively cheaply in either the fixed or floating rate market.

Page 6: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Interest Rate Swaps

A “plain vanilla” interest rate swap involves one party agreeing to pay fixed and another party agreeing to pay floating (interest rate), at specific time periods (eg. Every 6 months) over the life of the swap (eg 5 years).

Often a firm will borrow say“floating” from its bank and then go to a swap dealer who will agree to pay the firm “floating” , while the firm pays the swap dealer “fixed”

Page 7: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Altering Cash Flows with a Swap

Page 8: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Floating to Fixed: Liability

Fixed to Floating :Liability

Issue Floating Rate Bond or takes out bank loan at floating rate

Firm’s Swap LIBOR

LIBOR + 0.5

6% fixed

Net Payment for firm = 0.5 + 6.0 = 6.5% (= fixed)

Issue Fixed Rate Bondor take out bank loan at fixed rate

Firm’s Swap 6% fixed

6.2% fixed

LIBOR

Net Payment for firm = 0.2% + LIBOR (= floating)

Corporate Alters its (liability) cash flows with Swap

Page 9: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Swap : Financial Intermediary

Financial Intermediary

FI’s Swap 11% fixed

12% fixed

LIBOR

After swapNet Receipts = (12 - 11) + LIBOR - (LIBOR-1) = 2% (fixed)

LIBOR-1%

Without swap if LIBOR>13% F.I. makes a loss

Mortgagees Depositor

Page 10: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Reasons for Interest Rate Swaps

• 1) Hedge Risk• S&L (Building Soc) has fixed rate

mortgage receipts and pays out LIBOR on deposits

• (see above)

• 2) Lowers Overall Costs of bank loans • -for two (ie. Both corporate) borrowers

- (this is the “Principle of Comparative Advantage)

Page 11: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure 1:Cash Flows in a Swap at t: Receive Fixed and Pay FloatingEquivalent to ‘long’ a fixed coupon bond and ‘short’ an FRN

ReceiveFixed

PayFloating

0 t 6m 12m n

...

0 t n

...t= 3-monthsA dashed line indicates an uncertain cash flowIn practice, the principal is not exchanged

18

6m 12m 18

Page 12: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure 2: Ex-post Net Payments

Firm-B: Floating Rate Receiver (Fixed Rate Payer)

15th Sept(LIBOR = 10.0%)

15th March15th March(LIBOR=11%)

$ 100m(0.11-0.10)(1/2) = $ 5,000

$ 100m(0.10-0.10)(1/2) = $ 0

Fixed Rate = 10%

Page 13: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Comparative Advantageand

Gains in the swap

Page 14: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Comparative Advantage: Gains in the swap

A ultimately desires/wants to borrow floatingB ultimately desires/wants to borrow fixed

DIRECT BORROWING COSTS for A and BFixed Floating

• Firm-A 10.00 (Ax) LIBOR + 0.3% (AF)

• Firm-B 11.20 (Bx) LIBOR + 1.0% (BF)

Note that A can borrow at lower rate than B at both the fixed and floating rate (“A has absolute advantage”= higher credit rating). But the swap route will still be beneficial to BOTH A and B.

Page 15: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Why not borrow directly in desired form ?

A ultimately desires to borrow floatingB ultimately desires to borrow fixed

Total Cost to A+B of DIRECT borrowing in desired form

BX + AF = 11.2 +(L+0.3) = L + 11.5Total Cost to A+B if initially borrow in “NON-DESIRED

form

AX + BF = 10.0 + (L + 1.0 ) = L + 11.0Hence TC is lower if initially borrow in “NON-DESIRED”

Net overall gain to A+B = (BX + AF) - (AX + BF) = 0.5Assume this is arbitrarily split 0.25 eachSwap provides mechanism to achieve this

Page 16: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Table 1 : Borrowing Rates Facing A and B

Fixed Floating

Firm-A 10.00 (Ax) LIBOR + 0.3% (AF)

Firm-B 11.20 (Bx) LIBOR + 1.0% (BF)

Absolute difference (B-A) (Fixed) = 1.2 (Float) = 0.7Hence B has comparative advantage in borrowing at a

floating rate (“pays less more” )Hence Firm-B initially borrows at a floating rate

NCA/Quality Spread Differential NCA = (Fixed) - (Float) = 0.5

= (BX - AX ) - (BF - AF) - as on previous slide

Page 17: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

The Gain in the Swap

A ultimately desires to borrow floating

B ultimately desires to borrow fixed

1a)BUT B initially borrows “direct” at floating L+1.0

2) Assume B agrees in leg1 of swap to receive LIBOR

B’s Net payment so far is fixed 1.0

B’s (direct cost fixed - swap gain)

= 11.2-0.25=10.95

3) Hence in leg2 of swap B must pay 10.95-1.0 =9.95

( A will now also “fit” OK - see over )

Page 18: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure 3 Interest Rate Swap (A and B)

3)B pays A fixed 9.95%

Firm BFirm A2)A pays B at LIBOR

1a)Issues(Borrows) Floating at LIBOR + 1%

1a)Issues(Borrows) Fixed at 10%

IN THE SWAP:

B is floating rate receiver and fixed rate payer

A is floating rate payer and fixed rate receiver

Page 19: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure 4 Swap Dealer

Swap Dealer

Firm BFirm A

1a)Issues Floating at LIBOR + 1%

1b)Issues Fixed at 10%

2b)Floating LIBOR 2a)Floating LIBOR

3b)Fixed 10%3a)Fixed 9.9%

Note: Assume swap dealer makes 0.1 and A and B gain 0.2 each Note: Swap Dealer makes no profit on the floating rate leg

Page 20: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Table 14.2 :Indicative Pricing Schedule for Swaps

Maturity Current T-bond rate

Bank pays fixed Bank receivesfixed

4 years 7.95 4 years TB + 40bp 4 year TB + 50 bp

5 years 8.00 5 years TB + 46bp 5 year TB + 56 bp

6 years 8.05 6 years TB + 58bp 6 year TB + 68 bp

Page 21: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuation of Interest Rate Swaps

Page 22: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuation of Interest Rate Swaps

• Pricing swaps using a synthetic bond portfolio

Valuing the floater (variable payments) at inception, all the receipts on a floating

rate bond have a value equal to the notional principal or par value, Q

immediately after a coupon payment on a floating rate bond, its value also equals the par value, Q.

Page 23: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuation of Interest Rate Swaps

Fixed payments = fixed rate coupon bondFloating payments = floating rate bond

Fixed receipts-floating payerV(swap) = BX - BF

BX = price of coupon bond (using spot rates) - this is straightforward

BX = Ci e-ri.ti + Q e-r. n (tn)

Page 24: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

0 1 2 3

Q r1 Q f12

Q (1+f23)

f12 f12

r1

r2

r3

V( ALL future receipts at t=0 ) = Q (surprised?)

Value of Cash Flows on FRN at t = 0

Page 25: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

(Original time t = 0)

0 1 2

Q r1

Q (1+f12)

Note : We re-date end of year-1 as time t = 0.

V( ALL future receipts at t=1 ) = Q (more surprised?)

Value of cash flows, FRN at t=1

Page 26: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

0 1 2 3

Q r1

t

Q f12 Q (1+f23)

r1 f12 f23

r1-t

r2-t

r3-t

Note : If t = 0.25 years into the swapthen 1-t = 0.75 years,, 2-t = 1.75 years, 3-t = 2.75 years

Value of cash flows FRN, between payment dates

Page 27: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

0 1 2 3

Q (1 + r1)

t

It can be shown that BF= V(FRN at t) = Q (1 + r1) / (1+r1-t)

Value of cash flows between payment dates :Equivalent Cash Flow

r1-t

r1

Page 28: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

End of

Interest Rate Swaps

Page 29: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Currency Swaps

Page 30: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Topics Currency Swaps

Reasons for Swap

Cash Flows, Comparative Advantage and

Gains in the Swap

Valuation of Currency Swap

as bond portfolio

as series of forward contracts

Page 31: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Reason for undertaking a currency swap

• US firm (‘Uncle Sam’)with a subsidiary in France wishes to raise finance in French francs (FRF).

• The FRF receipts from the subsidiary in France will be used to pay off the debt.

• (This minimises foreign exchange risk)

Page 32: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Reason for undertaking a swap

• French firm (‘Effel’) with a subsidiary in the US might wish to issue dollar denominated debt

• It will eventually pay off the interest and principle with dollar revenues from its subsidiary.

• This reduces foreign exchange exposure.

Page 33: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

• Assume Uncle Sam can raise finance (relatively) cheaply in dollars (say $100m) and

Assume Effel can raise funds cheaply in FRF (say FRF500)

• They might INITIALLY do so and then SWAP the payments of principal and interest.

• So the Effel ENDS UP paying dollars and the USam paying FRF

The Currency Swap

Page 34: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Cash Flows in a FX Swap: Receive FRF and Pay USD

ReceiveFRF

PayUSD

0 t 6m 12m n

...

0 t n

...t= 3-monthsWe assume both USD and FRF are at fixed rates of interest

18

6m 12m 18

Page 35: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Borrowing Costs

and

Comparative Advantage

Page 36: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Dollar FRF

Uncle Sam 8% 11.5%

Effel 10% 12.0%

Absolute Difference 2% 0.5%

Effel:Comparative Advantage borrowing FRF

Net Comparative Advantage = 2 - 0.5 = 1.5%

T3: Borrowing Costs and Comparative Advantage

Page 37: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Table 3 : Borrowing Rates (Contin)

• Effel has comparative advantage in borrowing in FRF.

• Hence Effel initially borrows in FRF

• Note ultimately Effel wants to borrow USD and Uncle Sam wants to borrow FRF’s. This is the motivation for the swap.

Page 38: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure 5 Outset of a Currency Swap

French Bondholders

FRF500m

US Bondholders

$100

Effel Uncle SamSwap DealerFRF 500m

$ 100m

FRF 500m

$ 100m

$ 10

0m

8%

FR

F 5

00m

12%

Page 39: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Effel initially borrows FRF at 12.0%

Uncle Sam initially borrows USD at 8%

However they then swap payments because:

Uncle Sam ultimately wants to borrow FRF

Effel ultimately wants to borrow dollars

Outset of a Currency Swap

Page 40: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

If USam and Effel were to (stupidly) initially borrow directly in their desired currency then

Total Cost (direct) = USam FRF + Effel $’s = 11.5 + 10 = 21.5

But by initially borrowing in their CA currenciesTotal Cost (CA) = USam $’s + Effel FRF

= 8 + 12 = 20

Hence Gain in the Swap = 21.5-20 = 1.5 (as before)

Source of gains in the Swap

Page 41: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Assume (arbitrarily) the 1.5% gain is split)

Swap dealer gets 0.4% Uncle Sam gets 0.3%Effel gets 0.8%

Splitting the gains in the Swap

Page 42: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

USam gain of 0.3% impliesUSam pays 11.5 – 0.3 = 11.2% on the FRF leg (would have had to pay 11.5% directly)

Effel’s gain of 0.8% impliesits dollar payments in the swap are reduced from a direct cost of 10% (table 3) to 9.2%

Swap dealer: assume (for simplicity)Pays Uncle Sam 8% in dollarsPays Effel 12% in FRF

- so that the two firms payments and receipts are matched (ie. no FX risk for them)

Gains in the Swap

Page 43: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure 6: Interest Flows on Currency Swap

French BondholdersFRF 500m

US Bondholders

$ 100 m

Effel Uncle SamSwap Dealer

($ 9.2m)9.2%

(FF 60m)12%

$ 8m 8%

FR

F 6

0m

12%

($ 8m)8%

(FF 56m)11.2%

Swap Dealer: $Gain = 9.2 - 8 = 1.2%

FRF loss = 12 - 11.2 = 0.8%.

Net position = 1.2 - 0.8 = 0.4%

Page 44: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuation of Currency Swaps

Page 45: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuation of Currency Swaps

• Holding (long) a dollar denominated bond and issuing a FRF denominated bond. Receives USD and pays out FRF

• Payments/liability in French francs for ‘Uncle Sam’. Hence, appreciation of FRF (depreciation of USD) implies loss on swap.

• Two methods :

– Currency swap as a bond portfolio– Currency swap as a set of forward contracts

Page 46: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Figure A14.5 : Currency Swap

Timet 1 2 3 n

F1

Cd Cd Cd Cd Cd

Cf1 Cf2 Cf3 Cfn

F2

F3

Page 47: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Value of swap in USD at time t :

$V = BD - (S)BF

BF is the FRF value of French (foreign) bond underlying the swap,

BD is the $ value of US bond underlying the swap, S is the exchange rate ($/FRF)

Suppose the swap deal of FRF 500m for $100m has been in existence for 1 year with another 3 years to run

Valuing Currency Swaps as a Bond Portfolio

Page 48: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuing Currency Swaps as a Bond Portfolio

Exchange rates moved from S = 0.2($/FRF) to

S = 0.22($/FRF), r($) = 9%, r(F) = 8%

‘Uncle Sam’ $ coupon receipts in the swap = 0.08 ($ 100m) = $8m

‘Uncle Sam’ FRF coupon payments in the swap = 0.112 (FRF 500m) = FRF 56m.

Page 49: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Valuing Currency Swap as Set of Forward Contracts

‘Uncle Sam’ receives

annual USD C$ = $8m and principal M$ = 100m

pays out CF = FRF 56m and principal MF = FRF 500m.

This is a series of forward contracts Value of forward cash flows : $(C$ - FiCF)

Forward rate today is : Fi = Ste(r($)-r(F))t

Each net cash flow : $(C$ - FiCF)e-r($)t

Example : Let S = 0.22($/FRF), r($) = 9%, r(F) = 8% V = -$21.66m (see textbook p. 376)

Page 50: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Other Types of Swap

• Basis swap floating-floating swap yield curve swap

• Amortising swap• Accreting swap• Rollercoaster swap• Diff swaps or quanto swaps• Forward swap• Swap option or swaption

Page 51: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Swap are over-the-counter (OTC) instruments.

Interest rate swap in practice involves the exchange only of the interest payments

Currency swap involves the exchange of principal (at t=0 and t=T) and interest payments.

Swap dealers (usually banks) take on one side of a swap contract

Summary Swaps

Page 52: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

If Swap dealer cannot immediately find a matching counterparty ,may hedge the risk in the swap using futures or options

Swap dealers earn profits on the bid-ask spread of the swap deal

The cash flows on one side of a swap contract are equivalent to that party taking a long and short position in two bonds. This synthetic swap enables one to value a swap contract.

All swaps have a zero value at inception (this is how the fixed rate in the swap is determined).

Summary Swaps

Page 53: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

Subsequently changes in the fixed interest rate on an interest rate swap lead to an increase or decrease in the value of the swap to a particular party.

(The value of the floating leg remains (largely) unchanged at par, Q).

A currency swap changes value due to changes in the fixed interest rate and in the exchange rate.

Summary Swaps

Page 54: 31/1/2000 © K. Cuthbertson and D.Nitzsche Lecture Swaps (Interest and Currency) FINANCIAL ENGINEERING: DERIVATIVES AND RISK MANAGEMENT (J. Wiley, 2001)

31/1/2000

© K. Cuthbertson and D.Nitzsche

END OF SLIDES