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Topic-2FlowofFundsandInterestRates-2.pptx

FINANCIAL MARKETS

Topic 2

The Flow of Funds and Determination of Interest Rates

Overview

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Sectors in the financial system

The flow of funds between sectors

The nature of interest rates

Determination of the level of interest rates

Determination of the structure of interest rates

Interest rate calculations

Sectorial Players in the Financial System

Households

Financial Corporations

Corporations

Government

Domestic Economy

Rest of the World

Rest of the world

Sectorial Players in the Financial System

Households

Traditionally a net lender of funds

Over 80% of funds raised by this sector are by means of loans from financial intermediaries.

Non-financial corporations

Traditionally a net deficit sector. Funds must be raised for asset acquisition.

In Australia, approximately 60% of funds are raised by equity and 40% debt.

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Sectorial Players in the Financial System

Financial corporations

Traditionally a net borrower of funds, but this varies from year to year.

Claims on

Non-financial corporations

General government

Liabilities to

Households

Rest of the world

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Sectorial Players in the Financial System

Government

Depends on overall government budgetary policy, traditionally a net deficit sector in western economies.

Most funds raised by issuing long term debt securities (bonds). Also issue short term debt securities (treasury notes/bills).

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Sectorial Players in the Financial System

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Rest of the world

Traditionally a net lender of funds, though some countries are net borrowers.

Claims on non-financial corporations, financial corporations, general government

Liabilities to households

Sectorial Players in the Financial System

Domestic Economy

Rest of the World

Net Lenders Net Borrowers
Households Government
Rest of the World Financial Corporations
Non-financial Corporations

Australia Inter-sectoral Financial Flows

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Source:http://www.abs.gov.au/AUSSTATS/[email protected]/Previousproducts/5232.0Main%20Features4Mar%202017?opendocument&tabname=Summary&prodno=5232.0&issue=Mar%202017&num=&view=

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Nature of Interest rates

What is ‘interest rates’?

Interest rates can represent:

the cost of borrowing funds

the rate of return from lending

the opportunity cost of holding money

the time value of money

$10,000 now or

$10,000 in 3 years ?

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Time Value of Money

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Interest rate calculations

Simple interest

Compound interest

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Simple interest

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Where I = interest amount

i = annual interest

t = term of the investment in years

Simple interest

Example: Term Deposit

$100

For 5 years

At 5% interest rate

What are the interest?

What is the future value?

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Simple interest

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Putting everything in one formula:

Compound Interest

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$100 invested for 5 yrs at 5% nominal interests compounded annually, meaning that the interest are reinvested.

Year Sum at beginning ($) Interest earned ($) Sum at end ($)
1 100 5.0 105
2 105 5.25 110.25
3 110.25 5.51 115.76
4 115.76 5.79 121.54
5 121.54 6.08 127.63

Compound interest formula (compounded annually)

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Compound interest formula (> one compounding period)

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Step 1. Adjust interest rate to the compounding frequency

Step 2. Adjust interest power to the compounding frequency as well

Example

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a) What is the accumulated value of a $10,000 deposit made for four years with a yield of 9% per annum, compounded annually

b) What is the future value of the deposit described in (a) if interest is compounded quarterly

a)

b)

Other aspects of interest rates…

Effective interest rates:

compound interest rates are normally quoted as nominal interest rates (i.e. % per annum, without taking into account the compound effect and how many times it is compounded during the year)

Discount rates:

used to determine the price of

Discount securities

Fixed Interest Securities

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1.Effective/comparative/comparison interest rate

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Annual rate taking into account the compounding effect.

ie: effective interest rate

Effective/comparative/comparison interest rate

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Example:

10% Nominal rate

Compounded semi-annually

What is the effective rate?

2. Price of a discount security

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For some money market financial assets the future value is given and you have to calculate the discount price (Present Value).

At maturity the investor will receive the future value (also called face value).

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Price of a discount security

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For such securities the rate of interest i is generally represented by y yield not i.

The yield is the total rate of return on an investment; it comprises of investment income and capital gain (or loss).

2(a) Price of short term discount security

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Example: Bank Bill

FV = 70,000$

Term to Maturity = 30 days

y= 7.5% yield (p.a.)

Simple interest

What is the discount value/price/present value/ amount invested?

Price of short term discount security

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A corporation is selling a 30-day bank accepted bill with a total face value of $800,000. A bank is quoting the following rate 4.20. If the company accepts the quote the proceeds of the transaction will be:

$707,233.86

$767,754.31

$797,247.86

$833,677.32

None of the above.

If selected write the correct

answer on the answer sheet

2(b) Price of long-term discount security

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Also sold at a “discount” With compounding periods = interest are calculated periodically.

Price of long-term discount security

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Example:

Zero Coupon Bond

Future value= $1,000

Term to maturity= 3 years

9.25% market yield (p.a.)

Compounded annually

What is the discount value/price/present value/ amount invested?

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The level of interest rates

The overall position of interest rates, as a whole, within the aggregate economy or financial system

Central banks have a strong influence over it; use changes to the level of interest rates to affect consumer spending and borrowing

Note: In finance, when we refer to the interest rate, we normally refer to the nominal rate Nominal rate = Real rate + Inflation rate

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Determination of the level of interest rates

Loanable funds theory

The level interest rate can partially be explained by the loanable fund theory. The price of loanable funds (ie. the interest rate) will be the equilibrium price established by the interaction of the supply of and demand for loanable funds

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Determination of the level of interest rates Loanable funds theory

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Surplus economic units

Deficit

economic units

Determination of the level of interest rates

Main factors contributing to changes in level of interest rates:

Inflationary expectations

Central bank actions

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Determination of the level of interest rates

Inflationary expectations

Demanders of loanable funds will increase their demand for funds to maintain their pre-inflation investment plans

Suppliers of loanable funds will demand a higher rate of interest to maintain the real (after inflation) rate of return

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Determination of the level of interest rates

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Inflationary expectations

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Determination of the level of interest rates

Central Bank Action

Central banks intervene in the money market to influence the money supply, by buying and selling government securities

The increase or decrease in the money supply (respectively) will result in a change in the equilibrium interest rate

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Determination of the level of interest rates

RBA sells gov’t bonds:

Decrease in supply:

Q1 to Q2

Rates go up: R1 to R2

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Central Bank Action

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The structure of interest rate

The relationship, or variation, between different interest rates in different markets at one point in time, or in a particular market over different points in time

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The structure of interest rates

Term structure of interest rates

Shows how interest rates vary with term to maturity for otherwise identical investments

= Rates function of time

Risk structure of interest rates

Shows how interest rates vary with risk (credit risks, default risks, liquidity risks) for otherwise identical investments

Rates are a function of risk

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The structure of interest rates

Term structure of interest rate

 The yield curves

A graphical representation of the term structure of interest rates

Can be constructed for different investments, or for the same investment over different time periods

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Term structure of interest rate Different shapes of the Yield Curve

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Normal

Flat

Humped

Downward

Term structure of interest rates We use government security yield curve=Government bonds

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Source: Eikon Thomson Reuters 2018n Reuters 2018

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Determinants of the shape of the yield curve

Market (pure) expectations theory

Expectations plus liquidity premium

Market segmentation approach

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1. Market (pure) expectations theory

Assumptions:

Investors are primarily concerned with maximising returns

They see all investments, regardless of maturity, as perfectly substitutable

Financial markets operate efficiently

See e.g.: ASX Target Rate Tracker

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Market (pure) expectations theory

The term structure of interest rates is determined by:

Current short-term rates

Expected future short-term rates

Predicts that long-term rates will be the average of the expected future short-term rates over the period

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Pure expectations theory: Long term interest rates represent current short term rates and futures future expected short term rates.

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Market (pure) expectations theory

An example:

3% current rate for 1 years bonds (vintage 2016).

4% is expected rate for 1 years bonds in 12 months (vintage 2017).

5% is expected rate for 1 years bonds in 24 months (vintage 2018).

According to the theory, today’s rate should be:

One year bonds 3%

Two years bond 3.5% = (3+4)/2

Three years bond 4% = (3+4+5)/3

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REMOVE THE WORD “VINTAGE”

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2. Expectations plus liquidity premium

Assumption:

Investors are indifferent between short and long-term investments, BUT require a liquidity premium to compensate them for the higher risk associated with long-term investments

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One of the criticisms of liquidity premium theory is that investors are indifferent to holding long-term bonds or short-term bonds. It says that long-term are more sensitive to large fluctuation in prices and therefore more risk. A 50 basis points change in the interest rates will cause a higher change in price of a long-term bond than a short term bond.

Investors prefer holding short term securities because of the lower interest rate risk and higher liquidity. They are also less exposed to risk of default. However borrowers want to borrow for long-term. Hence lenders require a compensation i.e. a premium, for investing for a long period.

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Expectations plus liquidity premium

In order to encourage investors to invest long-term, borrowers must offer higher returns for long-term investments - a liquidity premium

Predicts that the yield curve will show an “upward bias” compared to the yields predicted by pure expectations

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Can also represented by adding L to the formula of pure expectations theory.

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Expectations plus liquidity premium

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3. Segmented market approach

Assumptions:

Investors see investments with different maturities as imperfect substitutes

They are primarily concerned with matching the maturity of assets and liabilities in order to minimise risk

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Segmented market approach

Markets for financial assets with different terms to maturity are seen as separate markets from each other

Predicts that yield for different maturities will be a function of supply of and demand for investments with that maturity

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Segmented market approach

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S

S

S

D

D

D

1 year bond

3 year bond

2 year bond

Summary

Sectors of the financial system

The flow of funds between sectors

The nature of interest rates

Time value of money

Interest rate calculations

Simple and compound interest and effective rates

Pricing securities

The level of interest rates (D&S, inflation, OMO)

Structure of interest rates (various theories)

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Interest

I

Value

Present

PV

Value

Future

FV

Where

=

=

=

+

=

I

PV

FV

t

i

PV

I

´

´

=

(

)

(

)

it

PV

t

i

PV

PV

I

PV

FV

+

=

´

´

+

=

+

=

1

125

25

100

25

5

05

.

0

100

=

+

=

+

=

=

´

´

=

´

´

=

I

PV

FV

t

i

PV

I

(

)

(

)

(

)

125

25

.

1

100

5

05

.

0

1

100

1

=

´

=

´

+

=

+

=

´

´

+

=

it

PV

t

i

PV

PV

FV

(

)

t

i

PV

FV

+

=

1

(

)

127.63

05

.

0

1

100

5

=

+

=

FV

FV

m

t

m

i

PV

FV

´

÷

ø

ö

ç

è

æ

+

=

1

years

in

investment

the

of

term

interest

annual

year

per

periods

g

compoundin

of

number

years

of

number

Where

=

=

=

=

t

i

m

t

(

)

14,115.81

09

.

0

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,

10

4

=

+

=

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FV

21

.

276

,

14

4

09

.

0

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,

10

4

4

=

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ö

ç

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æ

+

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FV

FV

ie = 1+ i m

⎝ ⎜

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−1

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m

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m

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%

25

.

10

or

1025

.

0

1

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.

1

1

2

10

.

0

1

1

1

2

2

=

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=

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÷

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ö

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=

m

e

m

i

i

(

)

(

)

yt

FV

PV

it

PV

I

PV

FV

+

=

+

=

+

=

1

1

PV = FV 1+ yt( )

= 70,000

1+ 0.075( ) 30 365 ⎛

⎝ ⎜

⎠ ⎟

⎝ ⎜

⎠ ⎟

= 69,571.14

PV=

FV

1+yt

()

=

70,000

1+0.075

()

30

365

æ

è

ç

ö

ø

÷

æ

è

ç

ö

ø

÷

=69,571.14

(

)

86

.

247

,

797

365

30

042

.

0

1

000

,

800

=

÷

ø

ö

ç

è

æ

÷

ø

ö

ç

è

æ

+

=

PV

PV = FV

1+ i m

⎝ ⎜

⎠ ⎟ m*t

PV=

FV

1+

i

m

æ

è

ç

ö

ø

÷

m*t

(

)

89

.

766

0925

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1

3

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=

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m

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PV