6.7 suggestions for indian securities market.doc
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CHAPTER – 6
SUMMARY, CONCLUSION AND SUGGESTIONS
6.1 INTRODUCTION
There have been substantial regulatory, structural,
institutional and operational changes in the securities market
during the last decade. These have been carried out with an
objective to improve the market efficiency, enhancing
transparency and checking unfair trade practices. As a result of
the reforms several changes have also taken place in the
operation of securities markets such as automated on-line
trading. It enabled trading terminals of the National Stock
Exchange and Bombay Stock Exchange to be available across
the country and making geographical location of an exchange
irrelevant; reduction in settlement period and opening of the
stock markets to foreign portfolio investors etc. In addition to
these developments, India is perhaps one of the real emerging
markets in South Asia region that has introduced derivatives
products on its two principal existing exchanges, viz. the BSE and
NSE.
To assist market participants to manage risk better through
hedging, speculation and arbitrage, Securities Contracts
(Regulations) Act [SCRA] was amended in 1995. Derivatives
trading commenced in June 2000 in the Indian securities market
on the NSE and BSE. The market, presently, offers index futures
and index options on three indices. Stock options and stock
futures on individual stocks and futures in interest rate products
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like national 91 day T- Bills and 10 - year bonds are also
available.
6.2 REVIEW OF LITERATURE
The introduction of stock index futures has profoundly
changed the nature of trading on stock exchanges. The concern
over how trading in futures contracts affects the spot market for
underlying assets has been an interesting subject for the
investors, market makers, academicians, exchanges and
regulators alike. Edwards (1988), Harris (1989), Herbst & Maberly
(1992), Jagadeesh & Subrahmanyam (1993), and Antoniou &
Holmes (1995) have brought out that the introduction of stock
index futures has caused an increase in spot market volatility in
the short run, while there is no significant change in volatility in
the long run.
The apparent increase in volatility has been attributed to
increased information flow in the market through the channel of
futures trading. However, the studies undertaken by Schwert
(1999), Bessembinder and Seguin (1992), Kamara et al., (1992),
and Darrat and Rahman (1995) categorically deny any increase
in spot market volatility resulting from the introduction of futures
trading. Though there is still disagreement as to whether futures
trading increases or decreases the volatility of spot prices.
6.3 NEED AND SCOPE OF THE STUDY
Despite the existence of a well-developed stock market for
over a hundred years, trading on derivative contracts in India
(Index Futures) started only in June 2000. It is but natural that
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the market players took time to understand the intricacies
involved in the operation of these new instruments. This is
clearly reflected in the growth of business in the index futures
contracts during the period of study, i.e., from June 2000 to June
2005. The growth can best be said to be modest not only in
terms of the number of contracts involved but also in terms of
value of such contracts (Gupta, 2003). Since the introduction of
index futures in India is a recent phenomenon, there has hardly
been any attempt to examine the impact of their introduction on
stock market volatility and liquidity.
This study encompassed data on daily prices of two major
stock indices, viz. the S&P CNX Nifty and BSE Sensex. In the case
of NSE, the study has been conducted for a period of five years
from June 2000 to June 2005. On the other hand, in the case of
BSE it is for two years from June 2000 to June 2002.
6.4 OBJECTIVES OF THE STUDY
The objectives of the study are:
(i) To make a comparative analysis of regulatory structure for
stock index futures market in India with developed markets.
(ii) To study the effect of stock index futures on stock market
volatility.
(iii) To analyse the stock market liquidity conditions after
introduction of stock index futures.
(iv) To make suggestions with regard to the working of stock
markets in India.
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6.5 RESEARCH DESIGN
The data for this study has been collected from the
respective websites of NSE and BSE. At the first stage, regulatory
framework of stock index futures in India has been compared
with that of Australia, Singapore, South Africa and USA on the
basis of ten selected parameters.
At the second stage the volatility condition in the market
has been measured through the use of following measures:
(a) Close-to-close prices
(b) Open-to-open prices
(c) Intra-day volatility
(i) Based upon highest-to-highest prices
(ii) Based upon lowest-to-lowest prices.
In order to test the null hypotheses of equal variance, F-test
has been used to measure the statistical significance of
variances.
At the final stage condition of liquidity has been measured
by using the coefficient of elasticity of trading (CET) ratio. This
new measure is similar to price elasticity measure. The CET has
been computed on the basis of information on prices and
volumes of trading data.
6.6 FINDINGS OF THE STUDY
Following is the summary of results and findings on the
empirical analysis as contained in the chapters third, fourth and
fifth of the present study.
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6.6.1 Comparison of Regulatory Framework of Stock
Index Futures
Regulatory framework of stock index futures in India,
Australia, Singapore, South Africa and USA has been compared
on the following basis:
(a) Regulatory Body for Stock Index Futures
In India, the SEBI is the highest authority for derivatives
trading also. Being a legislative body there is minimal
interference from the government for operations of stock market.
The SEBI always takes rational decision as per the requirement of
market.
In Australia, Australia Stock Exchange (ASX) is the highest
governing body for derivatives instruments. Index futures in
Australia are similar to popular e-mini futures on the S&P 500
index, the NASDAQ 100 index in the US and the mini FTSE 100
Index Futures in the UK.
In Singapore, Asia Pacific’s first demutualized and
integrated securities and derivatives exchange was established
on 1 Dec. 1999. The Singapore Exchange (SGX) came into force
with the merger of Stock Exchange of Singapore (SES) and
Singapore International Monetary Exchange (SIMEX). In
Singapore now SGX is responsible for working of different
derivatives products including stock index futures.
In South Africa, FTSE/JSE Advisory Committee is authorised
to manage the regulations of stock index futures.
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Stock index futures in United States of America are jointly
controlled by the New York Stock Exchange, American Stock
Exchange and Chicago Mercantile Exchange with the help of
NASDAQ National Market System.
(b) Underlying Instrument
In India, for the NSE, Nifty serves the purpose of underlying
instrument; and in the case of BSE, it is sensex. So, the value of
stock index futures in India purely depends on the movement of
Nifty and Sensex.
In Australia, contracts are entered over the ASX index, ASX
50 index, and ASX 200 property trusts sector index. Actually, ASX
50 index and ASX 200 index represent around 75 per cent and
90 per cent of total ASX domestic stock market capitalization
respectively.
In Singapore, Morgan Stanley Capital International (MSCI)
Free Index is used as underlying asset for stock index futures.
South Africa Stock Exchange offers a large number of stock
index futures contracts, such as FTSE/JSE Top 40 Index futures,
FTSE/JSE INDI 25 Index Futures, FTSE/JSE FINI 15 Index Futures,
and FTSE/JSE FNDI 30 Index Futures. So, underlying instrument
for above products are their concerned stock index, i.e., FTSE/JSE
Top 40 Index, FTSE/JSE INDI 25 Index, FTSE/JSE FINI 15 Index and
FTSE/JSE FNDI 30 Index.
As Chicago Mercantile Exchange (CME) is pioneer in starting
modern times stock index futures since April 21, 1982, it is now
offering different stock index futures such as CME S&P 500
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Futures, CME E-Mini S&P 500 futures, CME E-Mini S&P Asia 50
Futures, CME NASDAQ 100 Futures, and CME E-Mini NASDAQ 100
Futures contracts. So, underlying Instruments for the above
contracts are their respective indices for above specific
categories.
(c) Contract Size
In India the market lot size for Nifty futures is 200 or
multiples thereof. On the BSE, contract size is 50 or multiples
thereof.
In Australia, the system for contract size is slightly different.
The dollar value of each ASX Mini Index Futures Contract is based
on a $ 10 per index point multiplier.
In Singapore, the value of one Singapore MSCI Future is
equal to S$200 multiplied by the current index value.
In South Africa, the value or worth of a stock index futures
contract in Rand is the price of contract multiplied by ten. If the
price of the share index futures contract is 5000 then value of
one contract is R50000 (5000 10)
Due to availability of different stock index futures in USA,
the contract size is also different for each contract. In case of
CME S&P 500 Futures contract size is calculated by multiplying
CME S&P 500 Futures price by $250. For small investors CME E-
Mini S&P 500 futures, it is CME E-Mini S&P 500 futures price
multiplied by $50.
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(d) Maturity Date/Last Trading Day
In Australia, the third Friday of the maturity month,
provided this day is a trading day. And last trading day is the
business day preceding the maturity date.
In India, for the NSE and BSE, the last Thursday of the
maturity month. If the last Thursday is a trading holiday then the
preceding day of maturity date.
In Singapore, last trading day is the second last business
day of the contract month. A business day is defined as a day on
which the Singapore stock market is open for trading.
In South Africa, the last trading day for stock index futures
contract is 3rd Thursday of March, June, September and
December or previous business day if a public holiday falls on 3rd
Thursday. This rule is common for all four major stock index
futures contracts prevalent in South Africa.
In USA, the last trading day is the Thursday prior to the
third Friday of the contract month for CME S&P 500 Futures and
CME NASDAQ 100 Futures. The last trading day is slightly
different in case of CME E-Mini S&P 500 futures, CME E-Mini S&P
Asia 50 Futures, and CME E- Mini NASDAQ-100 Futures. In the
case of these contracts, the last trading day is third Friday of the
contract month and trading can occur up to 8.30 a.m. (Chicago
time).
(e) Trading Cycle
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The lifetime of each series is, generally, three months
worldwide. At any point of time there are three series open for
trading. It is applicable both in case of NSE and BSE.
In Australia, trading cycle is based on four months basis
such as March/June/September/December cycle. So, trading in
Australia Stock Exchange is based on above four months of the
year.
In Singapore, contract months are two nearest serial
months and four quarterly contract months.
South African market follows the Australian Stock Exchange
(ASX) for trading cycle. As per rules of FTSE/JSE trading in stock
index futures takes places on four months basis that means in
March, June, September and December and this trading cycle is
common for all stock index futures contracts famous in South
Africa. Similarly, in USA contract months are March, June,
September and December for all contracts.
(f) Settlement Basis
In India, for both the NSE and BSE, stock index futures are
marked to market and final settlement will be cash settled on a
(T+1) basis.
All ASX Mini Index Futures remaining open at maturity are
cash settled. This method is used to settle major index futures
contracts internationally including contracts over the S&P 500,
the S&P 100 and Dow Jone Industrial Average in USA and over
the Nikkei 225 and Nikkei 300 in Japan.
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In Singapore, upon expiry Singapore MSCI Futures will be
cash settled by one last marking-to-market.
Stock index futures contracts are cash settled in South
Africa and USA.
(g) Final Settlement Price
In India, daily settlement price is the closing price of futures
contract for the trading day and the final settlement price shall
be the closing price of the underlying index on the last trading
day. Above rule is applicable both at the NSE and BSE.
In Australia, the settlement price used is the ASX Futures
Opening Price Index Calculation (OPIC). The OPIC is based on the
opening price of each stock in the index on the morning following
the last trading day.
In Singapore, the final settlement price is based on the
average value of the MSCI Singapore Free Index taken at one
minute interval in the last one hour of trading, together with the
closing MSCI Singapore index value on the last trading day,
excluding the highest and lowest values.
In USA, all open positions at the close of the final trading
day are settled in cash to the special opening quotation on Friday
morning of the S & P 500 index for CME S&P 500 Futures and
CME E-Mini S&P 500 Futures contracts. In case of CME E-Mini S&P
Asia 50 Futures and CME NASDAQ 100 Futures are settled in cash
to the special opening quotation on Friday Morning of the S&P
Asia 50 Index and NASDAQ 100 Index respectively.
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In South Africa, the price at which a share index futures
contract expires shall be the average of the index taken every 60
seconds (100 iterations). The first calculation being at 12:01 and
the last at 13:40 on the expiry date.
(h) Margin Requirements
In Indian capital market, there is a provision of upfront
initial margin on daily basis. Initial margin is the amount required
to open a margin account for trading. And maintenance margin
must be maintained in a margin account.
All futures contracts traded on the ASX are registered,
cleared and settled by ASX’s wholly owned subsidiary Options
Clearing House Pty. Ltd. (OCH). Both buyers and sellers of ASX
Index futures contracts must pay an initial margin which is
determined by OCH according to the volatility of the underlying
index.
In Singapore no full payment equivalent to the contract
value is required upon initiating a futures position, the buyer and
seller must put up a margin deposit with the broker. This initial
margin is set by the SGX and is typically about 5-10 per cent of
the contract value.
FTSE/JSE in South Africa does not specify any margin
requirements in the shape of initial margin, maintenance margin
and variation margin.
In USA, the margin price limits are set on a quarterly basis
and are based on percentages of 5 per cent, 10 per cent, 15 per
cent, and 20 per cent. New limits go into effect at the beginning
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of each calendar quarter. The percentages (5 per cent, 10 per
cent, 15 per cent and 20 per cent) are based on the average
closing price of the lead month futures contracts in December,
March, June and September.
(i) Pricing/Valuation of Stock Index Futures Contract
Theoretically, fair price of a Stock Index Futures Contract is
derived from the well celebrated cost of carry model.
Accordingly, Stock Index Futures price depends upon (Hull,
2003):
- Spot index value
- Cost of carry or interest rate
- Carry return, i.e., dividend expected on securities
comprising the index.
Mathematically
F = Se (r – y) t
Where,
F = Futures Price
S = Spot value of index
e = Exponential constant with value 2.718
r = cost of carry or interest cost
y = carry return / dividend income
t = Time of maturity in years.
Above model is common for all stock index futures traded
around the globe.
(j) Trading Hours
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In Australia, normal trading takes place from 6.00 a.m. to
5.00 p.m. and 5.30 p.m. to 8.00 p.m. (Sydeny time). Overseas
trading takes place 8.00 p.m. to 5.30 a.m.
In India, trading hours are different for the NSE and BSE. At
BSE trading takes place between 9.30 a.m. to 3.30 p.m. and at
NSE 9.55 a.m. to 3.30 p.m. As compared to Australian Stock
Exchange, in India there is no separate provision for overseas
participants. ASX operates for stock index futures for 23 hours,
but Indian stock markets are working for just six hours.
In Singapore, trading of stock index futures takes place
between 8.45 a.m. – 12.35 p.m. and 2.00 p.m. – 5.15 p.m. It is
important to note that the timings for underlying stock market
trading are from 9.00 a.m. – 12.30 p.m. and 2.00 p.m. – 5.00
p.m. (Monday-Friday) with a pre-open session from 8.30 a.m. –
9.00 a.m. and a pre-close session from 5.00 p.m. – 5.06 p.m.
Trading hours for all stock index futures contracts are the
same at 13:40 on 3rd Thursday of March, June, September and
December in South Africa.
In USA, for CME E-Mini S&P 500 futures contracts, CME E-
Mini S&P Asia 50 Futures contracts, and CME E-Mini NASDAQ 100
Futures contracts there is virtually 24 hours trading (Chicago
time) on the CME Globex platform (Sundays from 5.00 p.m. to
Friday 3.15 p.m. Daily shutdown for maintenance is 4.30 p.m. –
5.00 p.m.).
6.6.2 Impact of Stock Index Futures on Stock Market
Volatility
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In this study, two research issues relating index futures
have been studied. First issue is related to the impact of
introduction of stock index futures on the underlying stock
market volatility. Second, a comparison is made of futures
market volatility with spot market volatility. Both these issues
have been studied in relation to the National Stock Exchange and
Bombay Stock Exchange.
6.6.2(1) Volatility Conditions in Market before and after
Introduction of Stock Index Futures
Under this head the volatility conditions in the market have
been studied in two periods, i.e., before introduction of stock
index futures and after introduction of stock index futures. First
period starts from June 1995 to May 2000 (before the start of
trading of stock index futures); and the second from June 2000 to
June 2005 (after the start of trading of stock index futures). The
following measures of volatility have been used to study the
impact of stock index futures on volatility of spot market
volatility:
(a) Open-to-open prices
(b) Intra-day volatility
(i) Based upon lowest prices
(ii) Based upon highest prices.
(c) Close-to-close prices.
6.6.2 (2) National Stock Exchange (NSE)
At NSE security description for stock index futures is
N FUTIDX NIFTY. The underlying instrument is S&P CNX Nifty
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index. And contract is traded in the size of 200 or multiples
thereof.
To study impact of stock index futures on nifty, two window
periods have been used; first period starts from June 1995 to
May 2000 (before the start of trading of stock index futures) and
the second from June 2000 to June 2005 (after the start of
trading of stock index futures).
6.6.2(3) Bombay Stock Exchange (BSE)
At Bombay Stock Exchange security description for stock
index futures is BSX. And the underlying instrument is BSE 30
Sensex. At BSE, contract is traded in the size of 50 or multiples
thereof.
To study the impact of stock index futures on Sensex, two
window periods have been used. First period starts from June
1998 to May 2000 (before the start of trading of stock index
futures); and the second from June 2000 to June 2002 (after the
start of trading of stock index futures). In the case of BSE, in the
initial years of introduction of stock index futures, the trading
volume was reasonably good. But then thereafter the reverse
trend started, and the volume of stock index futures turnover at
BSE decreased. Due to this reason the study in case of BSE has
been conducted for two years only as after the year 2002 the
volume of stock index futures was negligible for statistical
calculations.
6.6.2 (4) Relative Volatility: Index Futures and Spot
Markets
343
In this section of the study the relative volatility of futures
and spot market in respect of both the indices has been studied.
It helped to find whether index futures are more or less volatile
than the underlying spot index.
Following hypothesis was stated in statistical terms:
HO = (Index Futures) = (Spot index)
HA = (Index Futures) ≠ (Spot index)
6.6.2(5) Results – Impact on Volatility
Chapter-4 aimed at examining the impact of index futures
introduction on stock market volatility. Further, it has also
examined the relative volatility of spot market and futures
market. The study utilized daily price data (high, low, open, and
close) for the BSE Sensex and S&P CNX Nifty Index. Data
pertaining to the period from June 9, 2000 to May 31, 2002 has
been used for the BSE Index Futures, and from June 12, 2000 to
June 30, 2005 for Nifty Index Futures.
The empirical results reported here indicated that the
overall volatility of the underlying stock market has not declined
after the introduction of index futures on both the indices.
Therefore, the null hypotheses Ho(1) and Ho(2) stand
accepted as no change has been observed in the volatility
after introduction of index futures. And the alternative
hypotheses HA(1) and HA(2) thus stand rejected as the
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volatility of index future was not found to be different
from spot index is rejected.
It must, however, be noted that since the introduction of
index futures the Indian stock market has witnessed several
changes in its market micro structure such as abolition of the
traditional badla system, reduction in trading cycle etc.
Therefore, these results should be interpreted in the light of
these changes. In fact, there is some evidence that the futures
volatility is lower in comparison to the underlying stock market
indices for both the markets.
6.6.3 Impact of Stock Index Futures on Market
Liquidity
In Chapter-5, the impact of Stock Index Futures on Stock
Market liquidity has been studied. Although there are many
techniques to measure the liquidity condition in market, varying
from Bid-Ask Spreads, Market Volumes, Market Capitalization to
Impact Cost, yet none of these techniques recognize the role of
price for liquidity conditions. The solution of this unanswered
problem is Coefficient of Elasticity of Trading (CET). Coefficient of
Elasticity of Trading uses both aspects, i.e., trading volume and
prices to study liquidity position.
6.6.3(1) Impact on Liquidity due to Change in Closing
Price of N FUTIDX NIFTY
(a) Increase in Price and CET > 1
CET >1 explains that price increase is supported by more
than proportionate change in the volume. In all, sixteen months
345
reflected this trend. During these months despite an increasing
trend in prices, the buyers were still buying. It provided more
liquidity to the market.
(b) Decline in Prices and CET >1
This range has explained a new phenomenon, i.e., decline
in prices is supported by more than proportionate change in
volumes. During the period of study, ten months were showing
this trend. As per this range, people were buying more due to
change or decline in prices. This is quite natural that everyone
tries to test his luck in the market when prices are approachable.
Again, the investors/traders were providing more liquidity to the
market.
(c) Increase in Prices and CET<1 (BULL RUN)
This range is denoted by bull run condition in the market,
i.e., when the prices go up the buyers shown little interest in
buying. During the whole period of study, eighteen months
reflected this condition. In these months price increase was
reacted by less than proportionate change in the volumes. This
might be due to the booking of profits in bullish conditions.
(d) Decline in Prices and CET<1 (BEAR HUG)
Bear Hug is a condition which signifies that prices are going
down but buyers are not interested in buying. During the period
of study, sixteen months were found under bear hug. Generally,
due to decline in prices buyers buy more. These trends have
their own impact on the market liquidity.
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6.6.3 (2)Impact on Liquidity due to Change in the Opening
Price of N-FUTIDX NIFTY
(a) Increase in Prices and CET > 1
From June 2000 to June 2005 seventeen months reflected
this condition. Although human behaviour discourages new
buyings when prices are going up. But this was not in the case of
stock index futures market. This trend provided more liquidity to
market.
(b) Decline in Prices and CET > 1
During the period of study eleven months were reflecting
this situation. As per this trend people were buying more due to
declining prices. This is a natural behaviour of buyers to try their
luck in the market when prices are within their reach. And the
market participants were providing more liquidity to the market.
(c) Increase in Prices and CET < 1 (BULL RUN)
During the period of study, sixteen months were found
under Bull Run situation. In these months increase in prices was
reacted by less than proportionate change in the volume. This
situation may be caused due to the reaction of market
participants, who have booked profits under bull run.
(d) Decline in Prices and CET < 1 (BEAR HUG)
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During the period of study sixteen months were found
under bear hug. During these particular months decline in prices
is reacted by less than proportionate change in the turnover.
6.6.3 (3) Impact on Liquidity due to Change in Highest
Prices of N FUTIDX NIFTY
(a) Increase in Prices and CET > 1
During the period of study, twenty-one months were
reflecting this situation. It means during these months although
prices were going up but market participants were still buying
more. This provided more depth to the market in the context of
liquidity.
(b) Decline in Prices and CET > 1
From June 2000 to June 2005, this trend was noticed for
twelve months. During these months prices were declining and
market participants showed positive interest towards market.
And it led to more liquidity in the market.
(c) Increase in Prices and CET<1 (BULL RUN)
Throughout the period of study twelve months were found
under bull run condition. In these months price increase was
reacted by less than proportionate change in the volumes.
(d) Decline in Prices and CET <1 (BEAR HUG)
During the period of study fifteen months were found under
bear hug. Generally buyers buy more when prices are declining.
6.6.3(4) Impact on Liquidity due to Change in the Lowest
Prices of N FUTIDX NIFTY
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(a) Increase in prices and CET>1
During the period of study, twenty-one months reflected
this condition. It means although the prices went up yet market
participants were still buying more. No doubt, human behaviour
discourages to buy more when prices are going up. But it was not
so in the case of stock index futures market. This behaviour
provided more liquidity to the market.
(b) Decline in Prices and CET >1
From June 2000 to June, 2005 eleven months reflected this
situation. During these months market participants were buying
more due to decline in prices as per the human behaviour.
Everyone tries to test his luck in the market when prices are
within reach. Again, it provided more liquidity to the market.
(c) Increase in Prices and CET<1 (BULL RUN)
During the period of study, thirteen months were found
under Bull Run. In these months price increase was responded by
less than proportionate change in the volumes. This situation
might be the result of booking of profits by market participants.
(d) Decline in Prices and CET < 1 (BEAR HUG)
From July 2000 to June 2005, fifteen months were found in
bearish hug. During these particular months decline in prices was
responded by less than proportionate change in the turnovers.
6.6.3(5) Impact on Liquidity due to Change in Closing
Price of BSX
(a) Increase in Prices and CET > 1
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CET>1 means that price increase is supported by more
than proportionate change in the volume. This trend persisted for
nine months only during the whole period of study. During these
months, despite an increasing trend in prices the buyers were
still buying. It provided more liquidity to the market.
(b) Decline in Prices and CET>1
This range is explaining a new phenomenon, i.e., decline in
prices is supported by more than proportionate change in
volumes. During the period of study, seven months reflected this
trend. As per this range people were buying more due to change
or decline in prices. This is a natural buying behaviour, since one
tries to test one’s luck in the market when prices are
approachable. Again, the investors/traders provided more
liquidity to the market.
(c) Increase in Prices and CET<1 (BULL-RUN)
This range is denoted by bull run condition in the market,
i.e., prices keep to move up but buyers show no interest in
buying. During the whole period of study only two months
reflected this condition. In these months increase in prices was
responded by less than proportionate change in the volumes.
This might be due to the booking of profits in bullish conditions.
(d) Decline in Prices and CET<1 (BEAR HUG)
Bear Hug is a condition which signifies that buyers are not
interested in buying even when the prices keep on declining.
During the period of study, only six months were found under
350
Bear Hug. Generally, due to decline in prices buyers buy more.
These trends have their own impact on the market liquidity.
6.6.3(6) Impact on Liquidity due to Change in Opening
Price of BSX
(a) Increase in Prices and CET > 1
From June 2000 to June 2002 seven months reflected this
condition. Although human behaviour discourages new buyings
when prices are going up, yet this was not in the case of stock
index futures market. This trend provided more liquidity to
market.
(b) Decline in Prices and CET > 1
During the period of study, four months were found to have
this situation. As per this trend people were buying more due to
decline in prices. This is a natural behaviour of buyers to try their
luck in the market when prices are within their reach. And the
market participants provided more liquidity to the market.
(c) Increase in Prices and CET < 1 (BULL RUN)
During the period of study four months were found under
the Bull Run situation. In these months increase in prices was
responded by less than proportionate change in the volumes.
This situation might be caused due to the reaction of market
participants, who booked profits under bull run.
(d) Decline in Prices and CET < 1 (BEAR HUG)
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During the period of study, nine months were found under
bear hug. During these particular months, decline in prices was
responded by less than proportionate change in the turnover.
6.6.3 (7) Impact on Liquidity due to Change in Highest
Prices of BSX
(a) Increase in Prices and CET > 1
During the period of study eight months were reflecting this
situation. It means during these months although prices were
going up but market participants were still buying more. This
provided more depth to the market in context of liquidity.
(b) Prices Decline and CET > 1
From June 2000 to June 2002, three months showed this
trend. During these months, the prices were declining and the
market participants showed a positive interest towards the
market. And it led to more liquidity in the market.
(c) Increase in Prices and CET<1 (BULL RUN)
During the whole period of study five months were found
under the bull run condition. In these months increase in prices
was responded by less than proportionate change in the
volumes.
(d) Decline in Prices and CET <1 (BEAR HUG)
During the period of study, eight months were found under
bear hug. But generally, as per the buying behaviour the buyers
buy more when prices decline.
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6.6.3 (8) Impact on Liquidity due to Change in the Lowest
Prices of BSX
(a) Increase in Prices and CET>1
During the whole period of study nine months reflected this
condition. Despite an increase in prices the market participants
were still buying. Generally, human behaviour discourages to buy
more when prices show an upward trend. But this was not so in
the case of stock index futures market. This behaviour provided
more liquidity to the market.
(b) Decline in Prices and CET >1
From June 2000 to June 2002, four months reflected this
situation. During these months the market participants were
buying more due to decline in prices and it was as per the
natural behaviour. Everyone tries to test his luck in the market
when prices are within the reach. This situation provided more
liquidity to the market.
(c) Increase in Prices and CET<1 (BULL RUN)
During the period of study five months were found under
the Bull Run situation. In these months increase in prices was
responded by less than proportionate change in the volumes.
This situation might have arisen due to booking of profits by
market participants.
(d) Decline in Prices and CET < 1 (BEAR HUG)
From July 2000 to June 2002, six months were found in
bearish hug. During these particular months the decline in prices
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was responded by less than proportionate change in the
turnovers.
6.7 SUGGESTIONS FOR INDIAN SECURITIES MARKET
Although Indian security markets are emerging as an
important destination for investors, there is still a need for
further improvement in varied areas of their operations. As
compared to other developed markets; there are certain aspects
where policy-makers, regulators and other participants of the
market can play an important role. The suggestions for making
Indian securities markets more efficient, are depicted in Figure
6.1.
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Figure 6.1
Suggestions for making Indian Securities Markets
more Efficient
Legal Operational Risk Risk
Pre-Settlement Custody Risk Risk
Settlement Improvement Risk in Efficiency
Legal Risk
1. Legal Framework: As per the comparative study made in
chapter 3, the settlement system for securities can have a
well founded, clear and transparent legal basis in the
relevant jurisdictions.
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Pre-Settlement Risk
2. Trade Confirmation: Confirmation of trade between direct
market participants can occur as soon as possible after its
execution, but not later than the trade date (T+0). If
confirmation of trade by indirect market participants (such
as institutional investors) is required, then it should occur
as soon as possible after its execution, preferably on (T+0),
but not later than (T+1).
3. Settlement Cycles: Rolling settlement can be adopted in
all the securities markets. Final settlement should occur not
later than (T+3). The benefits and costs of a settlement
cycle shorter than (T+3) should be evaluated.
4. Central Counter Parties (CCPs): The benefits and costs
of a CCP should be evaluated. Where such a mechanism is
introduced, the CCP can rigorously control the risks it
assumes.
5. Securities Lending: Securities lending and borrowing (or
repurchase agreements and other economically equivalent
transactions) may be encouraged as a method for
expediting the settlement of securities transactions.
Settlement Risk
6. Central Securities Depositories (CSDs): Securities may
be immobilized or dematerialized and transferred by book
entry in CSDs to the greatest extent possible.
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7. Delivery Versus Payment (DVP): CSDs can eliminate
principal risk by linking securities transfers to funds
transfers in a way that achieves delivery versus payment.
8. Timing of Settlement Finality: Final settlement can
occur not later than the end of settlement day. Intra-day or
real time finality should be provided for where ever
necessary so as to reduce risks.
9. Cash Settlement Assets: Assets used to settle the
ultimate payment obligations arising from securities
transactions may carry little or no credit or liquidity risk.
Efforts must be taken to protect CSD members from
potential losses and liquidity pressures which may arise due
to faulty assets used for that purpose.
Operational Risk
10. Operational Reliability: The sources of operational risk in
the clearing and settlement process can be identified and
minimized through an appropriate system of controls and
procedures. The systems should be reliable and secure.
Contingency plans and back up facilities may be
established to allow timely recovery of operations and
completion of the settlement process.
Custody Risk
11. Protection of Customers Securities: Entities holding
securities in custody may employ accounting practices and
safekeeping procedures that fully protect customers’
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securities. It is essential that customers’ securities be
protected against the claims of a custodian’s creditors.
Improvement in Efficiency
The following suggestions may be implemented to further
improve efficiency, liquidity and to reduce volatility:
12. Futures contracts on more number of indices can be
introduced.
13. Mini size (smaller value contracts) may be permitted.
14. Efforts may be made to look at margin imposition system
and reduce margins without compromising on the integrity
of the market.
15. Presently, institutional participation appears to be
negligible in the total turnover, therefore, efforts should be
made to enhance their role in derivatives participation.
Other Issues
16. Governance: Governance engagements for CSDs and CCPs
can be designed so as to fulfil public interest requirements
and to promote the objectives of owners and users.
17. Access: CSDs and CCPs may have objective and publicly
disclosed criteria for participation that permit fair and open
access.
18. Efficiency: While maintaining safe and secure operations,
securities settlement systems can be cost effective in
meeting the requirements of users.
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19. Communication Procedures and Standards: Securities
settlement systems can use or accommodate the relevant
international communication procedures and standards in
order to facilitate efficient settlement of cross border
transactions.
20. Transparency: CSDs and CCPs may provide market
participants with sufficient information so as to enable the
participants to identify and evaluate accurately the risks
and costs associated with using the services provided by
them.
21. Regulation and Oversight: Securities settlement
systems may be subject to transparent and effective
regulation and oversight. There should be cooperation
between central banks, securities regulators and other
concerned authorities.
22. Risks in Cross Border Links: CSDs that establish links to
settle cross border trades may design and operate such
links to reduce effectively the risks associated with cross
border settlements.
6.8 RECOMMENDATIONS FOR FUTURE RESEARCH
The research is not a destination, it is a continuous journey.
The basic purpose of research is to contribute to the existing pool
of knowledge. The present study has been done in the
introductory years of derivatives products in Indian stock
markets. The following list enumerates some topics that have
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been identified for further research pertaining to subject-matter
related to the present study:
(i) A comparative study of regulatory structure for stock
futures, stock options, interest rate options and other
derivatives products can be undertaken.
(ii) This study evaluated the effect of stock index futures on
stock market volatility, which can be further extended
for stock future, stock options, interest rate options and
other derivatives products.
(iii) It would be quite interesting to assess the CET across
different derivatives products. The true potential of CET
for analysis can be judged when such measurement is
done at individual scrip level.
(iv) This study specifically excluded financial derivatives and
commodity derivatives. Therefore, an industry specific
study can also be carried out.
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