an examination of investor sentiment effect on g7 stock market returns
TRANSCRIPT
An examination of investor sentiment effect
on G7 stock market returns
Deven BathiaUniversity College Dublin∗
Don BredinUniversity College Dublin†
Abstract
This paper examines the relationship between investor sentiment and G7 stockmarket returns. Using a range of investor sentiment proxies, viz. investors’ survey,equity fund flow, closed-end equity fund discount and equity put-call ratio, we exam-ine if investor sentiment has significant influence on aggregate market returns, valuestocks returns and growth stocks returns. Using monthly data for the period January1995 to December 2007, our results indicate that investor sentiment has significantinfluence on stock market returns for different forecasting horizons. We find consis-tent results to previous studies in that when investor sentiment is high (low), futurereturns are low (high), thus showing negative relationship between investor senti-ment and future returns. In addition, our results also show that the effect of surveysentiment is stronger for value stocks than for growth stocks whereas equity fundflow has significant effect on aggregate market returns and value stocks returns. Ourresults of closed-end equity fund discount show significant negative effect on valuestocks returns and significant positive effect on growth stocks returns. And lastly,our findings of equity put-call ratio (PCR) indicate that when PCR is low, valuestocks outperforms over next month by 6 basis points. However we did not find anyevidence of the effect of PCR on aggregate market returns and growth stocks returns.
Preliminary draft
Keywords: Investor sentiment, Consumer confidence, Mutual funds, Closed-endfunds, Put-Call ratioJEL Classification: G12, G14, G23, G13
∗E-mail: [email protected].†E-mail: [email protected]. Corresponding author: Don Bredin, Graduate School of Business,
University College Dublin, Blackrock, Co Dublin, Ireland.
1 Introduction
Classical asset pricing theory (e.g. CAPM) assumes financial markets to be always effi-
cient, though degree of efficiency may vary. It rules out the element of investor sentiment
in asset pricing. It states that securities prices will be at par with its fundamental value
due to the presence of rational investors. It further states that arbitrageurs play significant
role in minimizing the volatility in security prices which may be due to the presence of
irrational investors. Empirically there is evidence of prolonged price anomalies in the stock
market. Previous literature attempted to relate these price anomalies to the presence of
investors’ under-reaction and overreaction, De Bondt and Thaler (1985, 1987), Barberis et
al (1998) and Daniel et al (1998). Researchers also attempted to link the price anomalies
to noise trader theory and found that some investors do indeed trade on noise instead of
fundamentals, De Long et al (1990) and Black (1986). Often lately, different terminologies
viz. confidence, anxiousness, optimism, pessimism, nervousness or irrational exuberance1,
have been used by media to describe the behavior of stock market investors. Recent evi-
dence [including Baker and Wurgler (2006) and Brown and Cliff (2005)] have highlighted
the role of uninformed demand shocks and limits to arbitrage as potential explanations.
Brown and Cliff (2005) highlight that investor sentiment is driven by a persistent unin-
formed demand shocks, while limits to arbitrage will deter informed traders from trading.
Limits to arbitrage may be either due to high trading costs, financing costs or information
costs that rational investors may have to incur in order to take an advantage of market
mispricing. Shliefer and Vishny (1997) derive a model where they show that in extreme
circumstances, professional arbitrageurs may not be successful in bringing security prices
back to its fundamental values. Hence the recent finding of investor sentiment and stock
returns relationship is not consistent with the classical framework.
The behavioral explanation2 of the presence of investor sentiment causing securities
mispricing still continue to remain widely controversial topic in finance literature. Many
researchers therefore continue to explore in defense for different sentiment measures; some
of these measures till date still remains highly debatable. For instance, closed-end fund dis-
1Alan Greenspan first used the term ‘irrational exuberance’ at black tie meeting in Washington D.C.
in December 1996 to describe the behavior of stock market investors. The immediate follow up televised
speech rattled the world stock market by an average of 3%2See Subrahmanyam (2007) for detailed literature of behavioral finance
1
count, which is considered as a measure of small investor sentiment, still remains a puzzle3.
Previous literature have linked IPO first day returns to investor enthusiasm thus conclud-
ing that IPO are mostly underpriced4. Other sentiment measures like investors’ survey,
trading volume, mutual fund flow, retail investors trade, dividend premium and insider
trading have all been considered as behavioral factors in explaining investors’ optimism
and pessimism5
With the exception of survey data6, this is the first international study examining
the role of investor sentiment, using an extensive set of proxies, on the aggregate market
returns, value stocks returns and growth stocks returns of G7 nations7. A range of sentiment
proxies included in our study are consumer confidence index, equity fund flow8, closed-end
equity fund discount and equity put-call ratio. We examine the role of sentiment for the
individual countries and a panel of G7 countries cases. The cross sectional nature of both
sentiment proxies and the cross country analysis will provide considerably greater power
to our tests and a natural sensitivity test to the previously reported results predominantly
on U.S. data. Previous studies mainly attempted to find the effect of investor sentiment
on overall market returns. Only handful of studies account for investor sentiment effect
on value stocks returns and growth stocks returns. For instance, Brown and Cliff (2004)
find strongest relationship between institutional investor sentiment and large stocks and
ruled out the conventional belief of individual investor sentiment affecting only small stocks
returns.
Our results show that consumer confidence and equity fund flow have significant effect
on stock returns. We find that when the beginning of period survey sentiment is high
(low), subsequent returns are low (high)9. Further, the effect of survey sentiment decreases
with the increase in forecast horizon. Our cross country results are particularly informative
in relation to the role of limits to arbitrage. The effect of survey sentiment over next 3
month horizon is usually greater for all the countries if a particular country has significant
3See Lee et al (1991), Chen et al (1993), Chopra et al (1993a, 1993b), Brauer (1993), Elton et al (1998),
and Russel (2005) for detailed study of closed-end fund discount4See Ritter (2003) and Ljungqvist (2006) for detailed discussion of IPO underpricing5See Baker and Wurgler (2007) for detailed explanation of each of these sentiment measures6See Schmeling (2009) and Verma and Soydemir (2006); their research is mentioned in brief later in
literature review section7G7 nations include U.S., Canada, U.K., France, Germany, Italy and Japan8Equity fund flow and net sales are used interchangeably in rest of the paper9See Fisher and Statman (2000, 2003), Baker and Wurgler (2006) and Brown and Cliff (2005)
2
coefficient in 1 month forecast horizon except France. For the U.S. we find consistent
results in which only growth stocks are victim of survey sentiment, Brown and Cliff (2005).
Our study of equity fund flow effect on stock returns show that the concurrent equity
fund flow is positively related to stock returns and lagged equity fund flow is negatively
related to stock returns. Our panel study findings indicate the presence of temporary price
pressure on aggregate market and value stocks. We found France to be only country that
displays an evidence of price pressure on value stocks due to an increase in equity fund flow
at time t. The study of closed-end equity fund (CEEF) discount effect on stock returns
indicate the presence of significant negative relationship between CEEF discount and value
stocks returns and significant positive relationship between CEEF discount and growth
stocks returns. Further, the CEEF discount effect minimizes but remains significant when
we introduce industry-return indices in our calculation. This indicates that when CEEF
discount decreases at time t, value stock increases in the same month whereas growth stocks
decreases for the same period. Our CEEF discount study of individual countries show
negative relationship between CEEF discount and the U.S. value stocks returns and positive
relationship between growth stocks returns and CEEF discount for the U.S., Canada and
U.K. When we examine the effect of equity put-call ratio (PCR) on future stock returns,
we find that when PCR is low, value stocks yields positive returns over next month by
6 basis points. Our individual country study of PCR effect on stock returns show that
low PCR yields positive returns in aggregate market and growth stocks in the U.S. and
negative returns in aggregate market and growth stocks in Canada over next month.
2 Related Literature
Previous papers have identified different sentiment proxies and performed empirical stud-
ies to determine its influence on aggregate market returns and its ability to predict future
returns. There are a number of methods to proxy market sentiment. Surveys are regularly
being conducted in many countries to see how investors foresee the direction of both stock
market and the overall economy. In the US, investors’ surveys are regularly conducted by
many organization; e.g. American Association of Individual Investors (AAII), Investors In-
telligence (II), University of Michigan’s Consumer Confidence Index Survey, the Conference
Board, UBS Gallup Survey, to name a few. Fisher and Statman (2003) find that increase
in the consumer confidence index is associated with an increase in the bullishness of indi-
3
vidual investors. Lemmon and Portniaguina (2006) find consumer confidence index to be
useful in both forecasting small-cap stock returns and also the returns of stocks with low
institutional ownership. Using II survey data as a measure of investor sentiment, Brown
and Cliff (2004) find that investor optimism is associated with low subsequent returns as
valuation levels return to intrinsic value. Similarly, Qiu and Welch (2006) find consumer
confidence index to be useful predictor of excess returns on small deciles stocks.
Some researchers have used closed end fund discount (CEFD) as sentiment proxy to
determine its effect on stock market returns. The size of discount (difference between fund’s
NAV and its market value) determines the level of investor sentiment. The smaller the size
of discount, the greater is the bullishness observed in investors’ behavior; and larger the
size of discount, the greater is the bearish behavior observed. Zweig (1973) finds CEFD
to be a measure of an individual investors’ expectations. Using CEFD data, Lee et al
(1991) find that when CEFD is high, investors are pessimistic about the future returns
and when CEFD is low, investors are optimistic about the future returns, thus concluding
CEFD as a measure of investor sentiment. By using three different sentiment proxies -
CEFD, the ratio of odd-lot sales to purchases and net mutual fund redemptions - Neal
and Wheatley (1998) find closed-end fund discounts and mutual fund net redemptions
to be positively related to small firm expected returns and very little evidence of odd-
lot ratio to be predictor of the small firm returns. Using individual investor survey data
from American Association of Individual Investor (AAII), Brown (1999) finds unusual
level of individual investor sentiment to be associated with greater volatility in closed end
funds. Elton et al (1998) and Doukas and Milonas (2004) find no evidence of small investor
sentiment, measured by closed-end funds discount, as a priced factor in return generating
process. Thus there have been mixed opinions in past literature about whether closed end
fund discount, as a measure of small investor sentiment, has any role in return generating
process.
Recently derivatives data, as sentiment proxy, have been widely studied to determine
its importance in predicting future returns. Despite the constraints in derivatives data
availability for international markets (excluding the U.S.), handful of research has been
undertaken in this area. Put-Call ratio (PCR) which is constructed from equity options
volume data is widely used sentiment measure besides VIX, open interest and options pre-
mium. A high PCR indicates pessimism in the market whereas low PCR indicates optimism
in the market. Pan and Poteshman (2006) examined the information contained in option
4
volume in future stock price movement and find that stocks with low PCR outperforms
stocks with high PCR over next day by 40 basis points and by 1% over 1 week. Bandopad-
hyaya and Jones (2008) finds PCR to be better measure than Volatility Index (VIX) for
predicting future returns. Lee and Song (2003) find that value stocks outperforms growth
stocks when PCR is low and growth stocks outperforms marginally or performs equally
well to value stocks when PCR is high.
Many practitioners also consider equity fund flow to be a measure of investor sentiment.
Warther (1995) studies the relationship between US mutual fund flows and market returns.
By using weekly data, he finds positive relationship between fund flows and subsequent
returns and with monthly data, he finds negative relationship between returns and subse-
quent fund flows. By using daily equity fund flow data, Edelen and Warner (1998) find
positive relationship between equity fund flow and concurrent market returns. Similarly,
Brown et al (2002) find evidence of relationship between daily mutual fund flows and stock
market returns of the U.S. and Japan and concludes that daily mutual fund flows can be
used as a proxy for investor sentiment. Frazzini and Lamont (2006) use mutual fund flows
as sentiment proxy and find high sentiment predicts low future returns and growth stocks
tend to be usual victim of high sentiment. Indro (2004) examines the relationship between
net aggregate equity fund flow and investors’ survey and finds when net aggregate equity
fund flow is higher during any given week, individual investor becomes more bullish in that
same week.
As noted earlier, vast majority of literature focused mainly on study of investor sen-
timent effect on the U.S. stock market returns. Very few international studies have been
conducted to measure sentiment effect on stocks returns; and these studies considered only
investors’ survey sentiment measure. For instance, Schmeling (2009) examines the effect of
consumer confidence index on stock market returns of 18 industrialized countries and finds
negative relationship between consumer confidence and forecasted aggregate stock market
returns. By investigating the degree of sentiment effect on stock market returns, Schmeling
finds sentiment effects to be greater for countries where stock market is less institutional-
ized, have low market integrity and where investor are more prone to herd like behavior.
Similarly, Verma and Soydemir (2006) study the US individual and institutional investor
sentiment effects on international stock market returns by using survey data conducted by
AAII and II. They find US investor sentiment had significant influence on international
stock market returns; though the effect of sentiment on stock market returns were differ-
5
ent for different countries depending on trade ties with US and its institutional structure.
This paper will be the first international study that attempts to find the effects of differ-
ent sentiment proxies on aggregate market returns, value stocks returns and growth stocks
returns.
3 Data and Methodology
To study the effect of investor sentiment on aggregate market returns, value stocks returns
and growth stocks returns10 of G7 nations, we employ monthly returns data for the period
January 1995 to December 2007 from the Kenneth French’s data library11.
Please insert table 1 about here
Table 1 provides a detail account of different sentiment proxies that are adopted. Con-
sumer confidence index data for the U.S. market is taken from the University of Michigan
Surveys of Consumers. The consumer confidence index data for Canada and Japan12 are
obtained from the Conference Board of Canada and the Cabinet Office, Japan respectively.
While data for the U.K., France, Germany and Italy are obtained from “Directorate Gen-
erale for Economic and Financial Affairs” (DG ECFIN). The details of consumer confidence
index calculation is given in Appendix A.
We obtain the equity fund flow data for the U.S. from the Investment Company Institute
(ICI) and that of Canada from the Investment Funds Institute of Canada (IFIC). The fund
flow data for the U.K market is sourced from the Investment Management Association,
U.K (IMA). The equity fund flow data and total net equity fund assets of Canada and the
U.K. are converted in U.S. Dollars by considering the month end foreign exchange rate.
The data for France, Germany, Italy and Japan are all obtained from Lipper, Thomson
10Stock market returns are from value weighted portfolio including dividends in US Dollar. We segregate
the aggregate stock market returns into value and growth stocks returns by considering the top 30% of
stocks sorted by book-to-market ratio as value stocks and the bottom 30% of stocks sorted by book-to-
market ratio as growth stocks.11http://mba.tuck.dartmouth.edu/pages/faculty/ken.french/data library.html12The consumer confidence index data for Canada (available until December 2001) and Japan (available
until March 2004) is only available on a quarterly frequency. Monthly observations were estimated via
interpolation by adopting a piecewise cubic spine methodology
6
Reuters and were made available in the U.S. Dollars. The equity fund flow data from
Lipper is available from January 2002 onwards whereas that of U.S., Canada and U.K. is
available from January 1995 onwards13. We normalize the equity fund flow for each country
by taking the percentage of current equity fund flow to its respective total net equity fund
assets, Indro (2004).
The closed-end equity fund (CEEF) data for G7 nations are obtained from the Morn-
ingstar 14. We specifically exclude bond funds within closed-end fund family. For each
country, we obtain CEEF’s monthly NAV and price data in U.S. dollars and then calcu-
late each fund’s discount. Following Lee et al (1991) and Doukas and Milonas (2004), we
construct value-weighted index of discount (VWD) for each country at monthly level:
VWDt = Σnti=1 weightt Discountit (1)
where,
weighti =NAVit
Σnti=1 NAVit
(2)
Discountit =( NAVit − Priceit)
NAVit
X 100 (3)
NAVit = Net asset value of each individual CEEF i at time t
Priceit = Market price of each individual CEEF i at time t
nt = the number of funds with the available NAVit and Priceit
We also construct change in value weighted index of discount (∆VWD) and used that as
a proxy to measure CEEF effect on value stocks returns and growth stocks returns:
∆ VWDt = VWDt − VWDt−1 (4)
13We use net equity fund flow data including distributions for the reasons given in Appendix B. This
Appendix also details the procedure of collecting and maintaining equity fund flow data by different sources14Refer Appendix C for detailed data description of closed end equity funds considered in our research
7
To calculate equity put-call ratio, we obtain equity options volume data from various
sources. The equity derivatives data for the U.S., Italy and Japan15 is obtained from
Chicago Board of Options Exchange (CBOE), Borsa Italiana and Tokyo Derivatives Ex-
change respectively; while those of Canada and Germany16 is obtained from Montreal
Derivatives Exchange and Deutsche Borse Group respectively. The equity derivatives data
for both the U.K. and France is sourced from NYSE Euronext17. Following Pan and
Poteshman (2006), we calculate equity put-call ratio (PCR) as follows:
Put-Call Ratioit =Put Volumeit
Put Volumeit + Call Volumeit(5)
where, put volume for country i is total number of put contracts traded in a month t and
call volume in country i is total number of call contracts traded in a month t. In our com-
putation of equity PCR, we consider total equity options volume data (including European
and American options). Hence it takes into account all the four different equity options
trades, viz. ‘open-buys’ and ‘close-buys’ initiated by the buyer to open new long position
and close existing short position respectively and ‘open-sells’ and ‘close-sells’ initiated by
a seller to open new position and close existing long position respectively. Our constructed
equity PCR differs from that of Pan and Poteshman (2006) where they study the effect of
open-buy PCR in predicting t day ahead stock returns.
Please insert table 2 and 3 about here
The descriptive statistics of stock market returns, consumer confidence index and equity
fund flow is reported in table 2. We calculate the presence of autocorrelation in the con-
sumer confidence index series at different lags. Due to the presence of high autocorrelation
in the series, we tested for a unit root in the series. The results of the panel unit root test
in table 3 confirms our belief that the consumer confidence index series is stationary. In
order to study the effect of consumer confidence index on aggregate market returns, value
15End of the month total equity call and put options traded were made available16End of the month total call and put options traded for each individual security was made available17End of the day equity put and call options traded for each individual security was made available for
the U.K. and France. To arrive at the total equity call and put options traded in any given month, we
summed end of the day each individual security call and put contracts traded
8
stocks returns and growth stocks returns, we estimate panel fixed effect regression of the
following form:
rit+k = δi,(k)0 + δ
(k)1 CCi
t + δ(k)2 γ
i,(k)t + ξ
i,(k)t+k (6)
where, k is the number of months from time t for each country i. The right hand side of
the equation includes consumer confidence (CC) index for each country i and several other
macro economic variables, e.g. annual CPI inflation, annual percentage change in indus-
trial production, de-trended 6-month CD rate, term spread and dividend yield which are
incorporated in γ. These macro-economic variables are considered in our regression so as
to remove the effect of common risk factors on returns18. We estimate the above equation
using panel fixed-effects approach in which all countries enter the regression jointly. This
approach will allow us to have different intercepts for each countries and constant slope co-
efficients. The panel fixed effect is studied over forecast horizon from 1 month to 24 months.
We employ moving-block-bootstrap simulation procedure to overcome predictive nature of
regression and so as to account for biased coefficient estimates and standard errors. The
moving block bootstrap is performed by employing block length of 6 observations19. The
influence of survey sentiment measure of individual G7 countries’ on its respective stocks
returns is also examined over the forecast horizon of 1 month to 12 months. We estimate
its coefficient by employing GMM (exactly identified) and employ a similar bootstrapping
procedure to that used by Schmeling (2009). The coefficient of individual countries for
forecast horizon from 12 month to 24 months is insignificant and therefore not reported
here to conserve space.
Please insert table 4 about here
Due to the presence of high autocorrelation in fund flow series (refer table 2), we tested
for a unit root in the series. The result of panel unit root test is given in table 4. The null
hypothesis of a unit root is strongly rejected, a result which is consistent with the consumer
confidence survey measure. The presence of high autocorrelation in the series indicate that
fund flow is highly predictable. As a result, we employ traditional Box-Jenkins method to
identify time-series properties of the equity fund flow and decompose the net equity fund
18See Baker and Wurgler (2006), Lemmon and Portniaguina (2006) and Schmeling (2009)19We also adopted different block lengths and found consistent results
9
flow into expected and unexpected equity fund flow, Warther (1995). By performing the
Breusch and Gofrey test of autocorrelation, we determine different AR model (refer table
2) for each country and use that model to find the expected net sales. The unexpected net
sales is then calculated by taking the difference between the actual net sales and expected
net sales. To study the effect of equity fund flow onto aggregate market returns, value
stocks returns and growth stocks returns, we again run the panel fixed effect regression of
the following form:
rit = δi,(k)0 + δ
(k)1 FFit−k + ξ
i,(k)t (7)
where, k is the number of lags employed from time t for each country i. We study the effect
of equity fund flow (FF) at different lags on stock returns. We also study the individual
country equity fund flow effect on stock returns in which we run the similar regression for
each individual country at different lags.
Please insert table 5 about here
The descriptive statistics of value-weighted index of (CEEF) discounts and equity PCR
is given in table 5. From the table, it is evident that Canadian market has the highest mean
VWD of 22.84% with high standard deviation of 4.70% followed after Japan. Despite Japan
having highest standard deviation of 5.56%, it is the only country with the lowest mean
VWD of 5.15%. In order to study the effect of CEEF discount on stocks returns, we run
two different models. In model 1, we run panel fixed effect regression where we study
the relation between value stocks returns and growth stocks returns against ∆VWD and
aggregate market returns, Lee et al (1991) and Doukas and Milonas (2004).
rit = δi0 + δ1∆VWDit + δ2 Aggregate returnsit + ξit (8)
where, r is either value stocks returns or growth stocks returns at time t for each country
i, ∆VWD is change is value-weighted index of discounts for each country i at time t.
Consistent with Elton et al (1998) and Doukas and Milonas (2004), in model 2 we adopt
industry-return indices, an unsystematic component, along with ∆VWD and aggregate
market returns. This test will allow us to determine the sensitivity of value stocks returns
and growth stocks returns against ∆VWD, industry-return indices and aggregate market
10
returns. We choose FTSE industry-return indices20 (viz. Banking, Basic materials, Indus-
trials and Consumer goods) for two main reasons, viz. a) they represent almost more than
three-quarters of the the stocks in which CEEF invests in for each of the respective markets
and b) the ease in data availability for the same time horizon. Similarly, we also run model
1 and model 2 for each individual country so as to determine the significance of investor
sentiment, measured by ∆VWD, in return generating process.
Looking at the statistics of equity PCR given in table 5, we see that Japan is the only
market that has highest mean PCR of 0.49 and high standard deviation of 20.32% whereas
Canadian derivatives market has both lowest mean PCR of 0.28 and standard deviation of
4.44%. To study the effect of equity PCR on future returns, we again run panel fixed effect
regression of the following form:
rit+k = δi,(k)0 + δ
(k)1 PCRi
t + ξi,(k)t+k (9)
where, k is the number of months from time t for each country i. We decided to run
panel fixed effect regression starting from the year January 2002 as for almost all the
countries, equity derivatives data is available from 2002 onwards21 except for the countries
like the U.S. and Japan for which data is available from Jan 1995 and July 1997 onwards
respectively. We also run similar regression for each individual countries starting from the
date from which data is first available.
4 Empirical Results
4.1 Consumer confidence Index:
The results of the panel fixed effects regression of stock returns on consumer confidence
index is given in table 6.
Please insert table 6 about here
It can be seen that there is negative survey sentiment-return relationship for aggregate
market returns, value stock returns and growth stock returns over different forecast horizon
20FTSE industry indices are taken from Datastream21Refer table 1 for detailed data source and time horizon for which equity derivatives data is available
11
from 1 month to 24 months. Panel A reports the effect of sentiment on aggregate market
returns. The results indicate that one standard deviation shock in survey sentiment leads to
aggregate market returns (refer Panel A) decrease by 48 basis points over next month and
by 60 basis points over the next 3 months at 1% significance level. However, the decrease in
returns is gradually reduced over 6 month, 12 month and 24 month forecast horizon. The
effect of survey sentiment on value stock returns and growth stock returns are similar. For
instance, we find one standard deviation shock in survey sentiment decreases value stock
returns (refer Panel B) by 59 basis points over next month. Also the decrease in returns
over the next 3 month is greater i.e. 79 basis points, than that in the first month.
The reduction in persistence of sentiment on returns for aggregate market, value stocks
and growth stocks are similar across all the forecast horizons. We also find that consumer
confidence has consistently greater impact on value stock returns than the aggregate market
and growth stock returns for all horizons. For instance at 1% significance level, aggregate
market and growth stock returns decreases by an average of 60 basis points over the next
3 months whereas value stock returns decreases by 79 basis points for the same time hori-
zon. Our results are consistent with the previous studies [see Lemmon and Portniaguina
(2006) and Schmeling (2009)] where they all find both a negative survey sentiment-return
relationship and value stocks being more influenced by survey sentiment than the growth
stocks. However, our results differ from that of Brown and Cliff (2005) and Baker and
Wurgler (2006) where they find survey sentiment effect to be stronger for growth stocks
than on the value stocks.
Please insert table 7 about here
The table 7 shows the results of predictive power of survey sentiment for individual
countries on stock returns for different forecast horizons from 1 month to 12 months22.
It can be seen that survey sentiment has a significant negative effect on stock returns
over 3 month forecast horizon for all the countries except U.K. and Japan. The impact
of sentiment disappears for all the countries beyond the 6 month forecast horizon except
for value stock returns in Italy and growth stock returns in U.K. Although the consumer
confidence survey for Japan represents the most comprehensive survey (accounting for 6,000
households), there is no significant effect of survey sentiment on aggregate market returns,
22The coefficient of survey sentiment is statistically insignificant for the forecast horizon greater than 12
months. Hence they are not reported here to conserve space
12
value stocks returns and growth stocks returns. Overall, the results show that the effect of
survey sentiment on stock returns gradually decreases with the increase in forecast horizon
as well as the existence of a negative relationship between survey sentiment and future
stocks returns.
4.2 Equity Fund Flow:
We run panel fixed effect regression for three different model to study the effect of equity
fund flow on aggregate stock market returns, value and growth stock returns. The coefficient
and p-value of all the three models are reported in table 8.
Please insert table 8 about here
In model 1, we regress stock returns at t on equity fund flow at t to t-3. The results
show that the stock returns are significant and positively related to concurrent net equity
fund flow and significant and negatively related to lagged equity fund flow23. It can be
seen that one standard deviation shock, 0.95%, to equity fund flow, is associated with an
increase in aggregate market returns by 59 basis points in the same month. The increase
in returns is greater for value stocks than that for the growth socks. For instance, value
stocks increases by 84 basis points at time t, whereas growth stocks increases by only 56
basis points. However the aggregate market returns, value stock returns and growth stock
returns decreases at subsequent months indicating the presence of negative relation between
returns and lagged equity fund flows.
Warther (1995) pointed out that the negative coefficient of lagged sales could be due
to the possibility of stock prices overreacting to net sales at time t and then reverting in
subsequent months or the lagged sales could be responsible for expected concurrent equity
fund flows thus affecting returns in subsequent months. Therefore in model 2, we regress
returns at t on equity fund flow at t-1 to t-3. The insignificant negative coefficients at all
lags of model 2 indicate the presence of lagged sales effect on expected concurrent net equity
fund flow. We therefore estimate model 3 in which we regress returns at time t on expected
and unexpected concurrent equity fund flow and unexpected net equity fund flow at t-1 and
t-2. The results of model 3 shows that the coefficient of unexpected concurrent equity fund
23We do not report the insignificant coefficient at lags greater than 3 to conserve space
13
flow is highly significant and has positive effect on aggregate market returns, value stocks
returns and growth stocks returns. However, the coefficients of expected concurrent net
equity fund flow and unexpected lagged equity fund flow are insignificant. For instance, one
standard deviation shock, 0.95%, to the unexpected concurrent equity fund flow will power
up the aggregate stock market returns by 0.82% and value stock returns and growth stock
returns by 1.02% and 0.81% respectively. The results indicate the possibility of presence
of temporary price pressure due to an increase in concurrent returns.
We therefore perform reversal test in the last column of table 8, where we regress
unexpected net sales on aggregate market returns, value stock returns and growth stock
returns at t-1, t and t+1. If the increase in unexpected equity fund flow causes temporary
price pressure on concurrent returns, than we should get significant negative coefficient of
subsequent returns. From the results, it can be seen that there is no evidence for the support
of feedback trader hypothesis which states that fund flow should lag returns, as mutual
fund investors are generally considered to be feedback traders. If mutual fund investor
indeed chases past returns, than we would have gotten significant positive coefficient of
lagged returns, which is not the case here. The results further shows the evidence of price
reversals for aggregate market returns and value stock returns as we get significant negative
coefficient of subsequent returns. Therefore in our panel study, we find an evidence that
increase in equity fund flow has significant effect on security prices; in other words, an
increase in unexpected inflow of equity funds leads to an increase in prices in concurrent
month and price reversals in subsequent month for aggregate market and value stocks.
Our findings are not consistent with the findings by the previous authors, [Warther (1995)
and Edelen and Warner (2001)], where they do not find any support for price pressure
hypothesis.
We run the above regression of each model for individual countries. The results of
model 1 for individual countries are reported in table 9.
Please insert table 9 and 10 about here
From Panel A of table 9, it is evident that coefficient for all the countries except France
is positive and significant at time t for aggregate market returns (refer Panel A). France
displays zero effect of concurrent and lagged equity fund flow on aggregate market returns
and growth stock returns. Japan is the only country that shows a negative effect of equity
fund flow on aggregate market returns and growth stock returns at t and t-1. This means
14
one standard deviation shock, 2.41%, to equity fund flow will lead to decrease in aggregate
market returns and growth stocks returns by an average of 1.03% at t and 0.84% at t-1.
Table 10 reports the results of model 2 for individual countries. Overall, the table shows
that lagged net equity fund flow has insignificant effect on stock returns except for the
U.K., France and Japan where coefficient of equity fund flow is statistically significant for
value stocks returns at t-1 and t-2.
The model 3 for individual countries are reported in table 11.
Please insert table 11 and 12 about here
The coefficients of concurrent expected fund flow of all the countries are insignificant.
Overall, the results show that unexpected concurrent net equity fund flow has a signif-
icant positive effect on aggregate market returns, value stock returns and growth stock
returns. The lagged component of unexpected equity fund flow for all the countries is sta-
tistically insignificant except for the value stock returns of U.K. The negative coefficient of
unexpected equity fund flow at t-2 indicates the possibility of price pressure effect on value
stock returns of U.K. Both France and Germany display no effect of concurrent unexpected
equity fund flow on growth stock returns; and Japan displays no evidence of unexpected
concurrent equity fund flow effect on value stock returns. Overall the result suggest that
unexpected equity fund flow has significant effect on aggregate market returns, value stock
returns and growth stocks returns; and this may be due to the presence of price pressure
effect or an information effect. To confirm if the effect of unexpected equity fund flow is
due to price pressure or new information, we perform reversal tests in which we regress
unexpected equity fund flow on stock returns at t-1, t and t+1. The results are reported in
table 12. We find evidence that inflow of unexpected equity fund flow has significant effect
on value stocks returns in France as we get significant positive coefficients at t followed by
significant negative coefficient at t+1. Thus there is evidence of a price pressure hypothesis
that exists in France as previous returns are reversed in the following month. Further,
we find Japan is the only country where inflow of unexpected equity funds has a negative
effect on aggregate market returns and growth stocks returns at t and t+1. Overall, our
individual country study findings (except France and Japan) show positive effect of unex-
pected equity fund flow on stock returns; this effect may be either due to price pressure or
the arrival of new positive information causing security prices to rise.
15
4.3 Closed end equity funds:
The results of panel fixed effect regression of both, model 1 and model 2, are given in table
13. As mentioned earlier, in model 1, we regress value stocks returns and growth stocks
returns at time t on ∆VWD and aggregate market returns.
Please insert table 13 about here
From model 1, it is evident that 1% decrease in ∆VWD is associated with an increase
in value stocks returns by 19 basis points. However with the drop of 1% in ∆VWD, growth
stocks returns decrease by 11 basis points. The significant coefficient of ∆VWD suggest
that investor sentiment as measured by ∆VWD has significant influence on both value
stocks returns and growth stocks returns. The decrease in discount has positive effect on
value stocks returns and negative effect on growth stocks returns. Our findings indicate
that investors’ optimism is associated with increase in returns along with decrease in CEEF
discount of value stocks returns. These findings contradicts with the findings of Lee et al
(1991) where they find smaller stocks, which usually tends to be growth stocks, to be usual
victims of investor sentiment. Besides, we found growth stocks to be mainly affected with
narrowing CEEF discounts. In order to study the relativeness of ∆VWD to aggregate
market returns and industry-return indices, we also run panel fixed effect regression in
model 2. Contrary to the previous findings by Elton et al (1998) and Doukas and Milonas
(2004), we find significant coefficient of both value stocks returns and growth stocks returns
at 5% and 1% significance level respectively. Our results show that 1% decrease in ∆VWD
leads to increase in value stocks returns by 10 basis points and decrease in growth stocks
returns by 7 basis points. Except for consumer goods returns, we further find that industry-
return indices do enter in return generating process as we get significant coefficients. Also
at the same time we see, that there is an increase in R2 for both value stocks returns and
growth stocks returns. Thus our findings indicate that CEEF discount does enter into
return generating process, similar to the results obtained by Lee et al (1991).
Please insert table 14 and 15 about here
The study of CEFF discount effect on value and growth stocks returns for individual
countries is given in table 14 and 15. Model 1 of table 14 shows that for value stocks re-
turns, we get significant negative coefficient of ∆VWD for the U.S., Canada and Germany
16
indicating that the decrease in ∆VWD is associated with an increase in value stocks re-
turns. Similarly for growth stock returns, we get significant positive coefficient of ∆VWD
for the U.S., Canada, U.K. and Italy indicating that increase in ∆VWD leads to increase
in growth stocks returns and vice-versa. Model 2 of table 15 shows the effect of ∆VWD
on value and growth stocks returns after considering industry-return indices and aggregate
market returns. For value stocks returns, we find U.S. as only country that is affected
by ∆VWD. For the U.S. market, except for industrials, all other industry-return indices
are significant at 1% level indicating that they also enter into return generating process.
Growth stocks returns are also significantly affected by ∆VWD for the U.S., Canada and
U.K. We get significant positive coefficient for these countries indicating positive relation-
ship between ∆VWD and growth stocks returns. The effect of industry-return indices in
return generating process is mixed for different countries. Model 2 also shows significant
improvement in R2 over model 1 for both value stocks returns and growth stocks returns
for each individual countries.
4.4 Equity Put-Call ratio:
Table 16 presents the results of panel fixed effect regression of current t returns and fore-
casted t+k returns on equity PCR. The significant and negative coefficient of equity PCR
in month t indicates the presence of influence of equity PCR in the same month t returns.
Further, our results indicate that only value stocks are significantly affected over next
month t+1, a finding similar to the one obtained by Lee and Song (2003). The coefficient
of equity PCR for value stocks is significant and negative for t+1 month, which indicates
that if one buys value stocks when equity PCR is low or sells value stocks when equity PCR
is high, can yield 6 basis points over next month. The fact that investor can yield very
low returns in t+1 is because information content in options volume is almost incorporated
in the stock price in the month t. Our findings are similar to previous literature where
authors have found the fading effect of equity PCR on stock returns, Pan and Poteshman
(2006). For t+1 month, we get insignificant coefficient for growth stocks and aggregate
market. The effect of equity PCR in t+2 is nil for aggregate market returns, value stocks
returns and growth stocks returns.
Please insert table 16 and 17 about here
17
Table 17 shows the effect of equity PCR on returns for each individual countries. It
is interesting to note that for the U.S. and Canada market, information content in equity
options volume gets slowly incorporated in stock price as investors have an opportunity to
gain in month t+1. For instance in the U.S., when equity PCR is low an investor can gain
aggregate market returns of 7 and 6 basis points in the month t+1 and t+2 respectively.
Also if an investor invests in growth stocks with low equity PCR in t, then it would yield him
8 and 7 basis points in the month t+1 and t+2 respectively. However, we get contradicting
results for Canadian aggregate market returns and growth stocks returns. For instance, an
investment in growth stocks with high equity PCR can help an investor to fetch 46 and 37
basis points in the month t+1 and t+2 respectively. In the case of value stocks, we did not
find significant coefficient for all countries in the month t+1. Similarly in the month t+2,
all countries except for the U.S. and Canada, we did not find any effect of equity PCR on
aggregate market returns, value stocks returns and growth stocks returns.
5 Conclusion
In this paper, we study the effect of consumer confidence index, equity fund flow, closed-
end fund equity (CEEF) discount and equity put-call ratio, widely considered as sentiment
proxies amongst many practitioners, on aggregate market returns, value stocks returns and
growth stocks returns. We find that there is a significant negative relationship between
survey sentiment and stocks returns. When investor sentiment is high (low) in the given
month, subsequent stocks returns are low (high). Our findings indicate that the effect
of survey sentiment is stronger on value stocks than that on the growth stocks which is
consistent with the previous empirical evidence [e.g. Schmeling (2009) and Lemmon and
Portniaguina (2006)]. The results are similar for net equity fund flow where we find negative
relationship between returns and subsequent equity fund flow. We find that the increase
in an unexpected concurrent equity fund flow has a positive effect on stock returns. In our
equity fund flow panel study, we find an evidence of temporary price pressure on aggregate
market returns and value stocks returns as we get highly significant estimates of return
reversal test. The increase in concurrent price of growth stocks and its subsequent decrease
may be either due to price pressure effect or an information effect.
Further, we find that value stocks returns and growth stocks returns are significantly
affected by the change in the CEEF discount. When CEEF discount narrows, value stocks
18
outperforms and growth stocks under performs; therefore indicating negative relationship
between CEEF discount and value stocks returns and positive relationship between CEEF
discount and growth stocks returns. Our results remain the same when we add industry-
return indices as natural candidates so as to measure the relativity of CEEF discount with
industry-return indices. Our findings are similar to that of Lee et al (1991) but contradicts
the findings of Elton et al (1998) and Doukas and Milonas (2004); therefore we conclude
that CEEF discount plays significant role in return generating process. Our results of eq-
uity PCR indicate that only value stocks yields positive returns in t+1 when PCR is low in
the month t. However, we did not find any evidence of equity PCR influencing aggregate
market returns and growth stocks returns.
19
Appendix A: Consumer Confidence Index Data Calculation:
Consumer surveys have been carried out in almost all the developed countries for more
than 20 years. These surveys are conducted to study consumers’ present and future fi-
nancial situation and their outlook on the economy over next year. The questions in the
surveys are usually standardized across all the countries. For instance, the University of
Michigan surveys at least 500 consumers households about their present and future finan-
cial situation, their business and economic outlook over next 1 year and 5 years respectively
and also about their willingness to spend on durable goods in the near future. Similarly,
the Conference Board of Canada surveys Canadian households about their present and fu-
ture financial situation and their level of optimism about the current economic conditions
and over the next 6 months. Besides studying the consumers’ current and future financial
situation and their outlook on the economy, DG ECFIN also seeks to find the likelihood of
consumers ability to save money over the next 12 months. DG ECFIN conduct consumer
survey on at least 2,000 households of U.K., Germany and Italy each and 3,300 households
of France. Of all, Japan surveys maximum household, i.e. 6,000 households. Their survey
questionnaire consists questions similar to that of U.S. and Canada, viz. consumers’ per-
ception of the economy, price expectation and their present and future financial situation.
Overall, the consumer survey questions are similar across the G7 countries and hence the
outcome of the survey can be made easily comparable. However, the calculation of index
differs across countries. For instance, DG ECFIN employs ‘Dainties’ method and Japan
employs X-11 of the Census Bureau USA. For ease of comparison, we standardize consumer
confidence survey measure across all the countries.
Appendix B: Equity Fund Flow Data Calculation:
This appendix details the reason for using the net equity fund flow data including dis-
tributions. Equity Fund Flow data has been widely used as sentiment proxy by many
practitioners. The net sales of new equity funds is considered as an increase in confidence
in the economy by an investor as they are willing to display bullish behavior in the stock
market. The Investment Company Institute of U.S. is the national trade association for
the investment company industry. Almost all the mutual funds, closed-end equity funds,
exchange-traded funds (ETF) and unit investment trust (UIT). domiciled in the U.S. are
the members of ICI. For each fund, ICI collects the following information, viz. net new
sales, reinvested dividends, net redemptions and net switches between the funds. In order
20
to study the effect of net equity fund flow, previous authors, Warther (1995) and Indro
(2004), have used net sales excluding distributions. The similar breakdown of net sales
including and excluding distributions is maintained by The Investment Fund Institute of
Canada (IFIC). The Investment Management Association, U.K. (IMA), maintains the net
sales of equity funds of all the mutual fund managers domiciled in United Kingdom. The
net sales data maintained by IMA includes distributions and is net of switches made be-
tween the funds and net redemptions. Lipper, subsidiary of Thomson Reuters maintains
the database of net equity fund flow including distributions for France, Germany, Italy and
Japan with effect from January 2002. They calculate net sales as a difference between total
equity fund assets between two months after stripping the performance of all the assets
within the funds. The data maintained by them includes reinvested distributions and also
takes into account both net redemptions and net switches between the funds. In order to
consider consistent data across all the countries, we decide to use net equity fund flow data
including distributions valued in U.S. Dollars. For this reason, we employ value weighted
stocks returns including re-invested distributions provided by Kenneth French24.
Appendix C: Details of closed-end equity funds data considered:
This appendix discuss different type of closed-end funds collected by Morningstar that
are considered in our research. For each fund, Morningstar gathers net asset value (NAV)
and price data. NAV data are sourced directly from the fund manager whereas price data
are obtained from trading exchanges. In our research, we have considered only conventional
closed end equity funds. Bond funds are specifically excluded. Also within closed end equity
funds, we do not consider fund warrants, C-shares and split funds in our analysis. Fund
Warrants are not considered as they don’t have NAV; C-shares are a way of existing funds
raising money and hence are not considered as conventional closed end funds. Split funds
are investment trusts with a fixed life, where the shares are divided into more than one
category. The simplest form of split funds is a split between capital shares and income
shares. The other variation of closed-end funds, which are not in their conventional form,
includes zero dividend preference shares, highly geared shares, participating income shares
and stepped preference shares. These funds have been specifically excluded in our discount
calculation. Lastly, CEEF for which either NAV data or price data is not available are
excluded in our VWD calculation.
24http://mba.tuck.dartmouth.edu/pages/faculty/ken.french/data library.html
21
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24
Table 1: Data Sources:
The below table details data sources of different sentiment proxies, viz. consumer confidence index, equity
fund flow, closed-end equity fund discount and equity put-call options volume. This table also list the
time horizon for each data source and for each individual country.
Country Time Horizon Source
Panel A: Consumer Confidence Index
U.S. Jan 1995-Dec 2007 The University of Michigan Consumer Surveys
Canada Jan 1995-Dec 2007 The Conference Board, Canada
U.K. Jan 1995-Dec 2007 Directorate Generale for Economic & Financial Affairs (DG ECFIN)
France Jan 1995-Dec 2007 Directorate Generale for Economic & Financial Affairs (DG ECFIN)
Germany Jan 1995-Dec 2007 Directorate Generale for Economic & Financial Affairs (DG ECFIN)
Italy Jan 1995-Dec 2007 Directorate Generale for Economic & Financial Affairs (DG ECFIN)
Japan Jan 1995-Dec 2007 The Cabinet Office, Japan
Panel B: Equity Fund Flow
U.S. Jan 1995-Dec 2007 The Investment Company Institute
Canada Jan 1995-Dec 2007 The Investment Fund Institute of Canada
U.K. Jan 1995-Dec 2007 The Investment Management Association, U.K.
France Jan 2002-Dec 2007 Lipper, Thomson Reuters
Germany Jan 2002-Dec 2007 Lipper, Thomson Reuters
Italy Jan 2002-Dec 2007 Lipper, Thomson Reuters
Japan Jan 2002-Dec 2007 Lipper, Thomson Reuters
Panel C: Closed End Equity Fund
U.S. Jan 1995-Dec 2007 Morningstar, Inc
Canada Jan 1995-Dec 2007 Morningstar, Inc
U.K. Jan 1995-Dec 2007 Morningstar, Inc
France Jan 1995-May 2004 Morningstar, Inc
Germany Jan 1995-Dec 2007 Morningstar, Inc
Italy Jan 1995-Jan 2003 Morningstar, Inc
Japan Jan 1995-Dec 2007 Morningstar, Inc
Panel D: Individual Equity Options Volume
U.S. Jan 1995-Dec 2007 The Chicago Board of Options Exchange
Canada Dec 2000-Dec 2007 Bourse De Montreal Inc
U.K. Jan 2000-Dec 2007 NYSE Euronext
France Jan 2002-Dec 2007 NYSE Euronext
Germany Jan 2001-Dec 2007 Deutsche Borse Group
Italy Jan 2001-Dec 2007 Borsa Italiana
Japan Jul 1997-Dec 2007 Tokyo Stock Exchange
25
Table 2: Descriptive Statistics: Stocks Returns, Consumer Confidence Index
and Equity Fund Flow
The table below reports the descriptive statistics of aggregate market returns, value stocks returns, growth
stocks returns, consumer confidence index and equity fund flow of G7 countries. Autocorrelation at Lag 1
is reported for consumer confidence index and equity fund flow for each country. The last column reports
the AR model used for each country to predict expected fund flow.
Country Market Value Growth CC Index Equity Fund Flow
µ σ µ σ µ σ µ σ ρ(1) µ σ ρ(1) AR Model
U.S. 1.00 4.24 1.19 3.86 0.95 4.49 94.63 8.71 0.88 0.53 0.53 0.71 3
Canada 1.41 5.17 1.31 6.13 1.28 6.73 89.07 13.19 0.93 0.80 1.11 0.60 4
U.K. 1.00 3.70 1.12 4.84 0.97 3.61 -3.74 4.02 0.81 0.23 0.22 0.62 15
France 1.25 5.07 1.40 6.45 1.24 5.32 -14.35 8.26 0.93 0.47 0.58 0.29 2
Germany 1.12 5.78 1.78 6.82 1.08 6.60 -8.61 8.51 0.95 -0.21 0.66 0.21 9
Italy 1.23 6.17 1.29 7.71 1.11 6.33 -11.69 5.66 0.89 -1.13 1.10 0.35 3
Japan 0.20 5.55 0.99 7.51 -0.14 5.67 41.85 4.54 0.95 0.65 2.41 0.08 12
Table 3: Panel Unit Root Test: Consumer Confidence Index
The below table reports the panel unit root test of consumer confidence indices. The tests by lm,
Pesaran, and Shin, Augmented Dickey Fuller and Phillips-Perron test the null of individual unit
root processes. The lag length selection is based on Schwarz Information Criteria (SIC) and the
test equation contains intercept. *, **, and *** denote statistical significance at the 10%, 5%, and
1% levels respectively.
Test Statistic p-value Obsvlm, Pesaran and Shin -2.72 (0.00)*** 1079Augmented Dickey Fuller 30.85 (0.00)*** 1079Phillips Perron 28.91 (0.00)*** 1085
Table 4: Panel Unit Root Test: Equity Fund Flow
The below table reports the panel unit root test of equity fund flow data. The tests by lm,
Pesaran, and Shin, Augmented Dickey Fuller and Phillips-Perron test the null of individual unit
root processes. The lag length selection is based on Schwarz Information Criteria (SIC) and the
test equation contains intercept. *, **, and *** denote statistical significance at the 10%, 5%, and
1% levels respectively.
Test Statistic p-value Obsvlm, Pesaran and Shin -9.88 (0.00)*** 722Augmented Dickey Fuller 125.62 (0.00)*** 722Phillips Perron 185.43 (0.00)*** 749
26
Table 5: Descriptive Statistics: VWD and Equity PCR
The below table reports the descriptive statistics of value-weighted index of discount (VWD) and equity
put-call ratio (PCR). The VWD is calculated by taking the sum of individual CEEF’s weight multiplied
by its discount. The equity PCR is equity put volume divided by equity call volume and equity put
volume
Country Value Weighted Discount (%) Equity Put Call RatioMean Min Max Std Dev Obsv Mean Min Max Std Dev (%) Obsv
U.S. 7.82 0.47 15.01 3.84 156 0.36 0.24 0.68 9.20 156Canada 22.84 14.22 34.84 4.70 156 0.28 0.18 0.39 4.44 85U.K. 9.72 4.59 14.94 2.37 156 0.45 0.37 0.59 4.62 96France 15.60 1.98 26.01 3.95 113 0.45 0.33 0.58 5.74 72Germany 14.71 5.74 25.00 3.93 156 0.45 0.23 0.60 5.83 84Italy 14.19 3.14 25.69 4.27 97 0.43 0.27 0.53 4.85 84Japan 5.15 -8.38 19.90 5.56 156 0.49 0.10 0.88 20.32 126
Table 6: Panel fixed effects regression: Consumer confidence index
The below table reports the results of panel fixed effect regression of aggregate market returns, value
stocks returns and growth stocks returns on consumer confidence index and different macro-economic
variables. The coefficient of macro-economic variables are not reported here for the sake of brevity. *,
**, and *** denote statistical significance at the 10%, 5%, and 1% levels respectively.
Forecast Horizon 1 month 3 months 6 months 12 months 24 months
Panel A: Aggregate market returnsSurvey Sentiment -0.48 -0.60 -0.44 -0.33 -0.26p-value (0.00)*** (0.00)*** (0.05)** (0.22) (0.27)R2 0.02 0.03 0.02 0.02 0.04Obs 1085 1071 1050 1008 924
Panel B: Value stocks returnsSurvey Sentiment -0.59 -0.79 -0.66 -0.49 -0.16p-value (0.00)*** (0.00)*** (0.03)** (0.09)* (0.63)R2 0.02 0.02 0.02 0.02 0.03Obs 1085 1071 1050 1008 924
Panel C: Growth stocks returnsSurvey Sentiment -0.49 -0.60 -0.47 -0.32 -0.30p-value (0.00)*** (0.00)*** (0.06)*** (0.28) (0.27)R2 0.02 0.02 0.02 0.02 0.04Obs 1085 1071 1050 1008 924
27
Table 7: Consumer confidence index: Individual country effect
The below table reports the returns predictability of consumer confidence index, as sentiment measure,
across different forecast horizon. *, **, and *** denote statistical significance at the 10%, 5%, and 1%
levels respectively.
1 month 3 months 6 months 12 monthsSurvey p-value Survey p-value Survey p-value Survey p-value
Panel A: Aggregate market returnsU.S. -0.10 (0.02)** -0.12 (0.04)** -0.09 (0.06)* -0.18 (0.00)***Canada -0.07 (0.08)* -0.13 (0.00)*** -0.03 (0.25) -0.02 (0.47)U.K. 0.01 (0.82) -0.11 (0.18) 0.12 (0.04)** 0.10 (0.31)France -0.16 (0.01)*** -0.06 (0.30) -0.07 (0.29) -0.12 (0.00)***Germany -0.12 (0.03)** -0.31 (0.00)*** -0.11 (0.26) -0.17 (0.08)*Italy -0.22 (0.00)*** -0.26 (0.00)*** -0.14 (0.11) -0.09 (0.30)Japan -0.07 (0.60) -0.18 (0.17) 0.01 (0.94) 0.00 (0.97)
Panel B: Value stocks returnsU.S. -0.02 (0.64) -0.04 (0.24) -0.01 (0.72) -0.09 (0.00)***Canada -0.13 (0.02)** -0.12 (0.05)** -0.00 (0.97) 0.02 (0.61)U.K. 0.02 (0.76) 0.00 (0.95) 0.04 (0.18) 0.11 (0.28)France -0.18 (0.04)** -0.11 (0.17) -0.06 (0.43) -0.07 (0.37)Germany -0.20 (0.12) -0.36 (0.00)*** -0.19 (0.00)*** -0.08 (0.32)Italy -0.27 (0.00)** -0.40 (0.00)*** -0.29 (0.00)*** -0.26 (0.02)**Japan 0.01 (0.90) -0.22 (0.23) -0.08 (0.63) -0.25 (0.17)
Panel C: Growth stocks returnsU.S. -0.12 (0.01)*** -0.12 (0.05)** -0.10 (0.07)* -0.20 (0.00)***Canada -0.09 (0.07)* -0.17 (0.00)*** -0.04 (0.24) -0.04 (0.44)U.K. 0.01 (0.86) -0.10 (0.16) 0.19 (0.00)*** 0.10 (0.34)France -0.18 (0.01)*** -0.08 (0.26) -0.09 (0.23) -0.14 (0.00)***Germany -0.04 (0.52) -0.30 (0.00)*** -0.13 (0.30) -0.20 (0.11)Italy -0.20 (0.00)*** -0.23 (0.00)*** -0.12 (0.22) -0.04 (0.64)Japan -0.11 (0.40) -0.19 (0.15) -0.01 (0.91) 0.07 (0.43)
28
Table 8: Panel fixed effect regression: Equity fund flow
The below table reports the panel fixed effect regression of G7 countries’ aggregate market returns, value
stocks returns and growth stocks returns on equity fund flow at different lags. Model 1 of the table
reports the regression of stocks returns on equity fund flow at t, t-1, t-2 and t-3. Model 2 of the table
reports the regression of stocks returns on equity fund flow at t-1, t-2 and t-3. Model 3 of the table
reports the regression of stocks returns on expected fund flow at t and unexpected fund flow at t, t-1
and t-2. In the last column, we regress unexpected net sales on returns at t-1, t and t+1. *, **, and ***
denote statistical significance at the 10%, 5%, and 1% levels respectively.
Independent Variables Model 1 Model 2 Model 3 Unexpected net sales
Coeff p-value Coeff p-value Coeff p-value Coeff p-value
Panel A: Aggregate market returns
Fund Flowt 0.62 (0.00)***
Fund Flowt−1 -0.32 (0.07)* -0.18 (0.29)
Fund Flowt−2 -0.30 (0.10)* -0.21 (0.24)
Fund Flowt−3 -0.40 (0.02)** -0.31 (0.08)*
Expected Fund Flowt 0.12 (0.73)
Unexpected Fund Flowt 0.86 (0.00)***
Unexpected Fund Flowt−1 -0.17 (0.41)
Unexpected Fund Flowt−2 -0.30 (0.17)
Aggregate Returnst−1 0.87 (0.22)
Aggregate Returnst 2.14 (0.00)***
Aggregate Returnst+1 -1.30 (0.06)*
R2 0.03 0.01 0.03 0.02
Panel B: Value stocks returns
Fund Flowt 0.88 (0.00)***
Fund Flowt−1 -0.40 (0.06)* -0.21 (0.32)
Fund Flowt−2 -0.46 (0.03)** -0.34 (0.11)
Fund Flowt−3 -0.49 (0.01)*** -0.37 (0.08)*
Expected Fund Flowt 0.17 (0.68)
Unexpected Fund Flowt 1.07 (0.00)***
Unexpected Fund Flowt−1 -0.31 (0.22)
Unexpected Fund Flowt−2 -0.30 (0.25)
Value stocks Returnst−1 -0.05 (0.92)
Value stocks Returnst 2.27 (0.00)***
Value stocks Returnst+1 -1.42 (0.01)***
R2 0.04 0.02 0.03 0.03
Panel C: Growth stocks returns
Fund Flowt 0.59 (0.00)***
Fund Flowt−1 -0.30 (0.13) -0.17 (0.37)
Fund Flowt−2 -0.34 (0.08)* -0.26 (0.18)
Fund Flowt−3 -0.38 (0.05)** -0.29 (0.13)
Expected Fund Flowt 0.10 (0.78)
Unexpected Fund Flowt 0.85 (0.00)***
Unexpected Fund Flowt−1 -0.09 (0.71)
Unexpected Fund Flowt−2 -0.39 (0.10)*
Growth stocks Returnst−1 1.01 (0.12)
Growth stocks Returnst 1.61 (0.01)***
Growth stocks Returnst+1 -0.88 (0.17)
R2 0.02 0.01 0.03 0.02
29
Table
9:
Model
1:
Regre
ssio
nof
stock
sre
turn
son
net
equit
yfu
nd
flow
at
Lag
0to
Lag
3
The
belo
wta
ble
repo
rts
the
Mod
el1
ofin
divi
dual
coun
trie
sw
here
aggr
egat
em
arke
tre
turn
s,va
lue
stoc
ksre
turn
san
dgr
owth
stoc
ksre
turn
sar
e
regr
esse
don
equi
tyfu
ndflo
wat
t,t-1,
t-2
and
t-3.
*,**
,an
d**
*de
note
stat
isti
cal
sign
ifica
nce
atth
e10
%,
5%,
and
1%le
vels
resp
ecti
vely
.
Ind
ep
en
dent
Varia
ble
sU
SC
an
ad
aU
KFran
ce
Germ
any
Italy
Jap
an
Coeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
e
Pan
el
A:
Aggregate
market
retu
rn
s
Fu
nd
Flo
wt
7.6
6(0
.00)*
**
1.6
3(0
.00)*
**
4.8
3(0
.00)*
**
0.1
5(0
.89)
2.5
5(0
.02)*
*1.8
7(0
.00)*
**
-0.4
2(0
.04)*
*
Fu
nd
Flo
wt−
1-4
.29
(0.0
0)*
**
-0.3
8(0
.49)
-1.8
9(0
.38)
-1.7
5(0
.11)
0.4
2(0
.70)
-0.5
7(0
.28)
-0.3
5(0
.09)*
Fu
nd
Flo
wt−
2-0
.05
(0.9
4)
-1.1
4(0
.04)*
*-4
.19
(0.0
5)*
*-0
.72
(0.5
3)
-0.8
6(0
.44)
-0.5
8(0
.32)
-0.1
6(0
.41)
Fu
nd
Flo
wt−
3-1
.75
(0.0
1)*
**
-0.1
2(0
.81)
-0.6
1(0
.73)
0.8
4(0
.46)
-2.4
9(0
.02)*
*-0
.15
(0.7
8)
-0.3
6(0
.07)*
R2
0.4
40.0
80.1
10.0
50.1
40.1
70.1
7
Pan
el
B:
Valu
est
ocks
retu
rn
s
Fu
nd
Flo
wt
6.6
3(0
.00)*
**
1.2
7(0
.03)*
*4.9
3(0
.03)*
*2.1
0(0
.12)
4.2
0(0
.00)*
**
2.7
4(0
.00)*
**
-0.2
8(0
.27)
Fu
nd
Flo
wt−
1-3
.00
(0.0
0)*
**
-0.6
7(0
.32)
0.0
2(0
.99)
-3.0
8(0
.03)*
*0.0
9(0
.94)
-1.0
5(0
.13)
-0.3
6(0
.15)
Fu
nd
Flo
wt−
2-0
.46
(0.5
5)
-0.3
7(0
.58)
-6.5
9(0
.02)*
*-1
.73
(0.2
3)
-0.8
8(0
.47)
-0.2
2(0
.77)
-0.5
6(0
.02)*
*
Fu
nd
Flo
wt−
3-1
.47
(0.0
3)*
*-0
.49
(0.4
3)
0.5
2(0
.82)
1.4
4(0
.32)
-2.3
8(0
.05)*
*-0
.11
(0.8
7)
-0.5
4(0
.03)*
*
R2
0.4
00.0
40.0
80.1
10.2
00.2
10.2
0
Pan
el
C:
Grow
thst
ocks
retu
rn
s
Fu
nd
Flo
wt
7.5
7(0
.00)*
**
2.1
1(0
.00)*
**
4.5
8(0
.01)*
**
-1.0
6(0
.27)
1.7
7(0
.14)
1.8
4(0
.00)*
**
-0.4
4(0
.03)*
*
Fu
nd
Flo
wt−
1-4
.41
(0.0
0)*
**
-0.0
9(0
.89)
-2.5
8(0
.23)
-0.9
3(0
.35)
0.2
0(0
.86)
-0.7
0(0
.22)
-0.3
5(0
.08)*
Fu
nd
Flo
wt−
20.2
4(0
.79)
-1.9
3(0
.00)*
**
-2.7
9(0
.19)
-0.7
4(0
.48)
-1.0
9(0
.36)
-0.5
6(0
.37)
-0.0
8(0
.69)
Fu
nd
Flo
wt−
3-1
.76
(0.0
3)*
*-0
.07
(0.9
1)
-1.2
0(0
.49)
0.7
2(0
.49)
-1.9
2(0
.11)
-0.3
8(0
.53)
-0.3
1(0
.12)
R2
0.3
80.0
90.0
90.0
60.0
80.1
60.1
6
30
Table
10:
Model
2:
Regre
ssio
nof
stock
retu
rns
on
net
equit
yfu
nd
flow
at
Lag
1to
Lag
3
The
belo
wta
ble
repo
rts
the
Mod
el2
ofin
divi
dual
coun
trie
sw
here
aggr
egat
em
arke
tre
turn
s,va
lue
stoc
ksre
turn
san
dgr
owth
stoc
ksre
turn
sar
e
regr
esse
don
equi
tyfu
ndflo
wat
t-1,
t-2
and
t-3.
*,**
,an
d**
*de
note
stat
isti
cal
sign
ifica
nce
atth
e10
%,
5%,
and
1%le
vels
resp
ecti
vely
.
Ind
ep
en
dent
Varia
ble
sU
SC
an
ad
aU
KFran
ce
Germ
any
Italy
Jap
an
Coeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
e
Pan
el
A:
Aggregate
market
retu
rn
s
Fu
nd
Flo
wt−
1-0
.05
(0.9
5)
0.3
0(0
.57)
1.7
7(0
.31)
-1.7
2(0
.11)
0.8
5(0
.46)
-0.0
6(0
.90)
-0.3
8(0
.07)*
Fu
nd
Flo
wt−
20.8
7(0
.42)
-0.6
9(0
.22)
-5.6
8(0
.00)*
**
-0.6
9(0
.53)
-0.3
1(0
.78)
-0.4
0(0
.52)
-0.1
8(0
.39)
Fu
nd
Flo
wt−
3-0
.83
(0.3
8)
-0.0
2(0
.96)
0.5
6(0
.75)
0.8
6(0
.45)
-2.5
1(0
.03)*
*0.1
9(0
.75)
-0.4
0(0
.05)*
*
R2
0.0
00.0
10.0
70.0
50.0
70.0
00.1
2
Pan
el
B:
Valu
est
ocks
retu
rn
s
Fu
nd
Flo
wt−
10.6
6(0
.44)
-0.1
4(0
.82)
3.7
5(0
.10)*
-2.5
8(0
.06)*
*0.7
9(0
.54)
-0.3
0(0
.68)
-0.3
8(0
.13)
Fu
nd
Flo
wt−
20.3
4(0
.73)
-0.0
2(0
.97)
-8.1
1(0
.00)*
**
-1.3
1(0
.36)
0.0
2(0
.98)
0.0
4(0
.95)
-0.5
7(0
.02)*
*
Fu
nd
Flo
wt−
3-0
.68
(0.4
3)
-0.4
2(0
.51)
1.7
2(0
.46)
1.7
1(0
.24)
-2.4
1(0
.07)*
0.3
9(0
.63)
-0.5
6(0
.02)*
*
R2
0.0
00.0
00.0
60.0
80.0
50.0
00.1
8
Pan
el
C:
Grow
thst
ocks
retu
rn
s
Fu
nd
Flo
wt−
1-0
.22
(0.8
2)
0.7
9(0
.25)
0.8
9(0
.60)
-1.1
9(0
.22)
0.5
0(0
.67)
-0.2
0(0
.73)
-0.3
8(0
.06)*
Fu
nd
Flo
wt−
21.1
6(0
.32)
-1.3
5(0
.06)*
*-4
.20
(0.0
4)*
*-0
.96
(0.3
5)
-0.7
1(0
.55)
-0.3
8(0
.56)
-0.0
9(0
.65)
Fu
nd
Flo
wt−
3-0
.86
(0.3
9)
0.0
6(0
.93)
-0.0
8(0
.96)
0.5
8(0
.57)
-1.9
3(0
.11)
-0.0
4(0
.94)
-0.3
5(0
.09)*
R2
0.0
00.0
20.0
50.0
40.0
50.0
10.1
0
31
Table
11:
Model
3:
Regre
ssio
nof
stock
retu
rns
on
exp
ect
ed
equit
yfu
nd
flow
at
Lag
0an
du
nexp
ect
ed
equit
yfu
nd
flow
at
Lag
0to
Lag
2
The
belo
wta
ble
repo
rts
the
Mod
el3
ofin
divi
dual
coun
trie
sw
here
aggr
egat
em
arke
tre
turn
s,va
lue
stoc
ksre
turn
san
dgr
owth
stoc
ksre
turn
sar
e
regr
esse
don
expe
cted
equi
tyfu
ndflo
wat
tan
dun
expe
cted
equi
tyfu
ndflo
wat
t,t-1
and
t-2.
*,**
,an
d**
*de
note
stat
isti
cal
sign
ifica
nce
at
the
10%
,5%
,an
d1%
leve
lsre
spec
tive
ly.
Ind
ep
en
dent
Varia
ble
sU
SC
an
ad
aU
KFran
ce
Germ
any
Italy
Jap
an
Coeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
e
Pan
el
A:
Aggregate
market
retu
rn
s
Exp
ecte
dF
un
dF
low
t-0
.22
(0.8
0)
-0.3
3(0
.67)
-0.1
0(0
.95)
-1.3
5(0
.84)
1.8
2(0
.52)
-0.2
7(0
.87)
0.5
3(0
.29)
Un
exp
ecte
dF
un
dF
low
t7.6
8(0
.00)*
**
1.7
7(0
.00)*
**
6.9
2(0
.00)*
**
0.2
2(0
.83)
2.6
8(0
.01)*
*1.8
6(0
.00)*
**
-0.5
4(0
.04)*
*
Un
exp
ecte
dF
un
dF
low
t−1
-0.0
5(0
.95)
0.3
1(0
.62)
2.0
6(0
.42)
-1.2
6(0
.53)
0.1
7(0
.88)
0.0
4(0
.95)
-0.2
5(0
.33)
Un
exp
ecte
dF
un
dF
low
t−2
0.7
7(0
.32)
-0.6
3(0
.34)
-2.9
6(0
.21)
-0.6
8(0
.73)
0.5
0(0
.66)
-0.2
7(0
.67)
-0.1
9(0
.47)
R2
0.4
30.0
90.0
70.0
40.1
30.1
70.1
1
Pan
el
B:
Valu
est
ocks
retu
rn
s
Exp
ecte
dF
un
dF
low
t-0
.06
(0.9
4)
-0.7
3(0
.44)
2.0
3(0
.44)
-0.0
9(0
.99)
-5.1
0(0
.87)
0.3
2(0
.87)
0.6
9(0
.27)
Un
exp
ecte
dF
un
dF
low
t6.6
3(0
.00)*
**
1.4
5(0
.01)*
**
5.9
7(0
.07)*
2.2
1(0
.10)*
4.5
6(0
.00)*
**
2.7
5(0
.00)*
**
-0.4
9(0
.12)
Un
exp
ecte
dF
un
dF
low
t−1
0.7
0(0
.38)
-0.0
1(0
.98)
2.1
3(0
.53)
-2.4
2(0
.34)
0.6
3(0
.61)
-0.2
7(0
.75)
-0.2
9(0
.36)
Un
exp
ecte
dF
un
dF
low
t−2
0.7
3(0
.32)
-0.0
9(0
.91)
-5.5
3(0
.07)*
-1.8
8(0
.45)
1.6
7(0
.18)
0.1
0(0
.90)
-0.3
8(0
.23)
R2
0.4
00.0
50.0
50.1
10.2
50.2
10.0
9
Pan
el
C:
Grow
thst
ocks
retu
rn
s
Exp
ecte
dF
un
dF
low
t0.0
2(0
.98)
-0.4
8(0
.63)
-0.5
0(0
.79)
-0.9
0(0
.88)
-3.8
3(0
.18)
-1.0
5(0
.55)
0.6
3(0
.20)
Un
exp
ecte
dF
un
dF
low
t7.5
8(0
.00)*
**
2.2
7(0
.00)*
**
6.5
5(0
.00)*
**
-0.9
9(0
.30)
1.6
1(0
.11)
1.8
3(0
.00)*
**
-0.5
3(0
.03)*
*
Un
exp
ecte
dF
un
dF
low
t−1
-0.3
9(0
.68)
0.8
8(0
.28)
1.6
8(0
.50)
-0.9
1(0
.62)
-0.5
4(0
.64)
0.1
1(0
.88)
-0.2
2(0
.37)
Un
exp
ecte
dF
un
dF
low
t−2
0.7
8(0
.37)
-1.0
2(0
.23)
-1.7
2(0
.45)
-1.0
2(0
.57)
-0.1
5(0
.89)
-0.1
7(0
.79)
-0.1
8(0
.47)
R2
0.3
80.1
00.0
60.0
50.0
70.1
60.1
2
32
Table
12:
Regre
ssio
nof
unexp
ect
ed
equit
yfu
nd
flow
on
stock
sre
turn
satt-1,t
an
dt+
1
The
belo
wta
ble
repo
rts
regr
essi
onof
unex
pect
edeq
uity
fund
flow
onag
greg
ate
mar
ket
retu
rns,
valu
est
ocks
retu
rns
and
grow
thst
ocks
retu
rns
att-1,
tan
dt+
1.*,
**,
and
***
deno
test
atis
tica
lsi
gnifi
canc
eat
the
10%
,5%
,an
d1%
leve
lsre
spec
tive
ly.
Ind
ep
en
dent
Varia
ble
sU
SC
an
ad
aU
KFran
ce
Germ
any
Italy
Jap
an
Coeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
e
Pan
el
A:
Aggregate
market
retu
rn
s
Ret
urn
s t−
10.7
2(0
.19)
0.2
7(0
.83)
0.1
9(0
.54)
-0.3
2(0
.82)
2.2
8(0
.05)*
*1.1
5(0
.63)
5.5
1(0
.33)
Ret
urn
s t5.7
7(0
.00)*
**
4.5
3(0
.00)*
**
0.8
1(0
.01)*
**
0.0
0(0
.99)
2.4
6(0
.03)*
*9.0
3(0
.00)*
**
-15.7
3(0
.00)*
**
Ret
urn
s t+
1-0
.20
(0.7
1)
0.0
2(0
.98)
0.2
8(0
.37)
-2.0
8(0
.14)
0.1
5(0
.89)
-1.0
9(0
.65)
-11.6
2(0
.05)*
*
R2
0.4
40.0
90.0
50.0
30.1
20.1
80.1
6
Pan
el
B:
Valu
est
ocks
retu
rn
s
Ret
urn
s t−
1-1
.59
(0.8
0)
-0.2
4(0
.81)
0.2
2(0
.38)
-0.8
2(0
.44)
0.9
9(0
.32)
0.7
6(0
.67)
1.9
4(0
.69)
Ret
urn
s t5.9
8(0
.00)*
**
2.7
2(0
.00)*
**
0.4
2(0
.09)*
1.7
1(0
.10)*
3.4
8(0
.00)*
**
8.0
0(0
.00)*
**
-7.5
7(0
.15)
Ret
urn
s t+
10.0
0(0
.99)
-0.5
6(0
.58)
0.2
8(0
.26)
-2.1
5(0
.05)*
*-0
.16
(0.8
7)
-1.1
9(0
.50)
-8.5
6(0
.09)*
R2
0.3
80.0
50.0
30.0
80.1
80.2
40.0
9
Pan
el
C:
Grow
thst
ocks
retu
rn
s
Ret
urn
s t−
10.8
1(0
.13)
0.4
7(0
.61)
0.1
4(0
.67)
0.3
8(0
.80)
2.8
2(0
.01)*
**
0.9
7(0
.68)
4.8
5(0
.39)
Ret
urn
s t5.0
8(0
.00)*
**
3.0
9(0
.00)*
**
0.7
8(0
.01)*
**
-1.7
9(0
.24)
1.4
8(0
.19)
7.8
3(0
.00)*
**
-16.6
2(0
.00)*
**
Ret
urn
s t+
1-0
.18
(0.7
4)
0.5
4(0
.56)
0.1
6(0
.62)
-1.3
7(0
.37)
-0.2
9(0
.79)
-1.5
1(0
.52)
-11.1
0(0
.07)*
R2
0.3
90.0
80.0
40.0
40.1
10.1
60.1
7
33
Table 13: Panel fixed effect regression: Closed-end equity fund discount
The below table reports the panel fixed effect regression of value stocks returns and growth stocks returns
on change in index of CEEF discount (∆V WD) and aggregate market returns in model 1 and change
in index of CEEF discount (∆V WD), aggregate market returns, FTSE Banking, FTSE Basic materials,
FTSE Industrials and FTSE Consumer goods indices in model 2. *, **, and *** denote statistical
significance at the 10%, 5%, and 1% levels respectively.
Model 1 Model 2Value stocks Growth stocks Value stocks Growth stocks
returns returns returns returnsCoeff p-value Coeff p-value Coeff p-value Coeff p-value
Intercept 0.09 (0.78) -0.04 (0.80) 0.13 (0.67) -0.04 (0.79)
∆ VWD -0.19 (0.00)*** 0.11 (0.00)*** -0.10 (0.05)** 0.07 (0.00)***
Aggregate returns 1.00 (0.00)*** 1.03 (0.00)*** 0.36 (0.00)*** 1.29 (0.00)***
Banking 0.25 (0.00)*** -0.12 (0.00)***
Basic materials 0.29 (0.00)*** -0.11 (0.00)***
Industrials 0.08 (0.00)*** -0.01 (0.26)
Consumer goods 0.02 (0.29) -0.01 (0.38)
R2 0.67 0.89 0.76 0.91
34
Table 14: Model 1: Closed-end equity fund discount: Individual country effect
The below table reports the regression of value stocks returns and growth stocks returns on change
in index of CEEF discount ∆V WD and aggregate market returns. *, **, and *** denote statistical
significance at the 10%, 5%, and 1% levels respectively.
Intercept ∆ VWD Aggregate returns R2
Coeff p-value Coeff p-value Coeff p-valuePanel A: Value stocks returnsU.S. 0.44 (0.02)** -0.36 (0.01)*** 0.74 (0.00)*** 0.66Canada 0.03 (0.91) -0.47 (0.00)*** 0.90 (0.00)*** 0.57U.K. 0.06 (0.81) 0.20 (0.44) 1.06 (0.00)*** 0.66France 0.02 (0.96) -0.21 (0.20) 1.07 (0.00)*** 0.70Germany 0.66 (0.02)** -0.23 (0.07)* 0.98 (0.00)*** 0.72Italy -0.29 (0.52) -0.11 (0.51) 1.08 (0.00)*** 0.75Japan 0.76 (0.02)** -0.03 (0.76) 1.12 (0.00)*** 0.69
Panel B: Growth stocks returnsU.S. -0.08 (0.31) 0.16 (0.01)*** 1.03 (0.00)*** 0.96Canada -0.41 (0.03)** 0.31 (0.00)*** 1.21 (0.00)*** 0.89U.K. 0.05 (0.61) 0.41 (0.00)*** 0.90 (0.00)*** 0.87France 0.03 (0.87) 0.13 (0.17) 0.96 (0.00)*** 0.84Germany -0.09 (0.68) 0.02 (0.85) 1.04 (0.00)*** 0.84Italy -0.07 (0.62) 0.10 (0.06)* 1.00 (0.00)*** 0.97Japan -0.34 (0.00)*** 0.01 (0.79) 0.99 (0.00)*** 0.95
35
Table
15:
Model
2:
Clo
sed-e
nd
equit
yfu
nd
dis
count:
Indiv
idual
cou
ntr
yeff
ect
The
belo
wta
ble
repo
rts
the
regr
essi
onof
valu
est
ocks
retu
rns
and
grow
thst
ocks
retu
rns
onch
ange
inin
dex
ofC
EE
Fin
dex
∆V
WD
,ag
greg
ate
mar
ket
retu
rns,
FT
SEB
anks
,F
TSE
Bas
icm
ater
ials
,F
TSE
Indu
stri
als
and
FT
SEC
onsu
mer
good
sin
dice
s.*,
**,
and
***
deno
test
atis
tica
l
sign
ifica
nce
atth
e10
%,
5%,
and
1%le
vels
resp
ecti
vely
.
U.S
.C
an
ad
aU
.K.
Fran
ce
Germ
any
Italy
Jap
an
Coeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
eC
oeff
p-v
alu
e
Pan
el
A:
Valu
est
ocks
retu
rn
s
Inte
rcep
t0.4
9(0
.00)*
**
0.2
5(0
.29)
0.1
0(0
.67)
0.1
7(0
.55)
0.7
9(0
.00)*
**
0.4
9(0
.21)
0.9
0(0
.00)*
**
∆V
WD
-0.3
0(0
.01)*
**
-0.1
7(0
.17)
0.2
6(0
.33)
-0.0
2(0
.84)
-0.1
4(0
.20)
0.0
9(0
.50)
-0.0
7(0
.38)
Aggre
gate
retu
rns
0.3
3(0
.00)*
**
0.0
3(0
.73)
0.9
6(0
.00)*
**
-0.1
2(0
.38)
0.4
6(0
.00)*
**
0.2
8(0
.02)*
*0.4
9(0
.00)*
**
Ban
kin
g0.1
2(0
.00)*
**
0.1
9(0
.00)*
**
0.0
1(0
.90)
0.3
4(0
.00)*
**
0.2
9(0
.00)*
**
0.2
6(0
.00)*
**
0.1
7(0
.00)*
**
Basi
cm
ate
rials
0.1
6(0
.00)*
**
0.5
7(0
.00)*
**
0.0
8(0
.19)
0.2
0(0
.01)*
**
0.1
8(0
.01)*
**
0.1
1(0
.10)*
0.5
8(0
.00)*
**
Ind
ust
rials
0.0
3(0
.64)
0.1
4(0
.00)*
**
0.0
7(0
.20)
0.2
2(0
.00)*
**
-0.1
7(0
.03)*
*0.1
2(0
.01)*
**
-0.1
4(0
.21)
Con
sum
ergood
s0.1
6(0
.00)*
**
-0.0
2(0
.48)
-0.0
9(0
.03)*
*0.3
8(0
.00)*
**
0.1
8(0
.00)*
**
0.3
1(0
.00)*
**
-0.0
6(0
.44)
R2
0.7
80.7
90.6
70.8
50.7
90.8
50.8
4
Pan
el
B:
Grow
thst
ocks
retu
rn
s
Inte
rcep
t-0
.09
(0.2
0)
-0.3
1(0
.03)*
*0.0
2(0
.81)
-0.0
1(0
.96)
-0.0
7(0
.71)
-0.2
2(0
.05)*
*-0
.37
(0.0
0)*
**
∆V
WD
0.1
4(0
.01)*
**
0.1
9(0
.01)*
**
0.3
4(0
.00)*
**
0.0
9(0
.28)
-0.0
4(0
.64)
0.0
3(0
.48)
0.0
2(0
.50)
Aggre
gate
retu
rns
1.0
3(0
.00)*
**
1.6
8(0
.00)*
**
1.0
6(0
.00)*
**
1.4
4(0
.00)*
**
1.6
0(0
.00)*
**
1.2
3(0
.00)*
**
1.1
8(0
.00)*
**
Ban
kin
g-0
.01
(0.4
1)
-0.3
5(0
.00)*
**
-0.0
8(0
.00)*
**
-0.1
8(0
.00)*
**
-0.1
0(0
.01)*
**
-0.1
3(0
.00)*
**
-0.0
5(0
.00)*
**
Basi
cm
ate
rials
-0.1
0(0
.00)*
**
-0.2
0(0
.00)*
**
-0.0
5(0
.06)*
-0.0
6(0
.33)
-0.2
3(0
.00)*
**
-0.0
4(0
.06)*
-0.1
8(0
.00)*
**
Ind
ust
rials
0.1
1(0
.00)*
**
0.0
2(0
.36)
-0.0
2(0
.49)
-0.1
2(0
.02)*
*-0
.13
(0.0
3)*
*-0
.01
(0.5
5)
0.0
8(0
.03)*
*
Con
sum
ergood
s-0
.00
(0.8
2)
-0.0
1(0
.45)
0.0
2(0
.18)
-0.0
9(0
.03)*
*-0
.10
(0.0
1)*
**
-0.0
7(0
.00)*
**
-0.0
3(0
.29)
R2
0.9
60.9
40.8
80.8
90.8
70.9
80.9
7
36
Table 16: Panel Fixed effects regression: Equity Put Call Ratio
The below table reports the results of panel fixed effect regression of aggregate market returns, value
stock returns and growth stock returns on equity put-call ratio for the period January 2002 to De-
cember 2007. The equity PCR is equity put volume divided by equity call volume and equity put
volume. *, **, and *** denote statistical significance at the 10%, 5%, and 1% levels respectively.
Rt Rt+1 Rt+2 Rt+3
Panel A: Aggregate market returnsPCR -0.07 -0.03 -0.01 -0.04p-value (0.00)*** (0.26) (0.78) (0.13)R2 0.02 0.01 0.01 0.01Obs 504 497 490 483
Panel B: Value stocks returnsPCR -0.12 -0.06 -0.02 -0.07p-value (0.00)*** (0.04)** (0.49) (0.01)***R2 0.04 0.01 0.01 0.01Obs 504 497 490 483
Panel C: Growth stocks returnsPCR -0.05 -0.02 -0.01 -0.03p-value (0.02)** (0.38) (0.72) (0.29)R2 0.02 0.01 0.01 0.01Obs 504 497 490 483
37
Table 17: Equity Put Call Ratio: Individual Country Effect
The below table reports an individual country effect of equity put-call ratio on aggregate market returns,
value stocks returns and growth stocks returns for the period from which equity PCR data is first available.
The equity PCR is equity put volume divided by equity call volume and equity put volume. *, **, and
*** denote statistical significance at the 10%, 5%, and 1% levels respectively.
Rt Rt+1 Rt+2 Rt+3
Coeff p-value Coeff p-value Coeff p-value Coeff p-valuePanel A: Aggregate market returnsU.S. -0.12 (0.00)*** -0.07 (0.06)* -0.06 (0.10)* -0.03 (0.45)Canada -0.33 (0.00)*** 0.25 (0.04)** 0.23 (0.07)* -0.02 (0.85)U.K. -0.36 (0.00)*** -0.04 (0.68) -0.06 (0.49) -0.16 (0.07)*France -0.24 (0.01)*** -0.07 (0.45) -0.12 (0.25) -0.11 (0.27)Germany -0.30 (0.01)*** -0.00 (0.97) -0.05 (0.69) -0.09 (0.44)Italy -0.06 (0.60) 0.10 (0.40) 0.06 (0.60) -0.20 (0.07)*Japan 0.10 (0.69) 0.03 (0.29) 0.03 (0.17) 0.03 (0.27)
Panel B: Value stocks returnsU.S. -0.07 (0.02)** -0.02 (0.47) -0.04 (0.23) -0.02 (0.46)Canada -0.61 (0.00)*** 0.09 (0.57) 0.09 (0.54) -0.08 (0.59)U.K. -0.52 (0.00)*** -0.11 (0.34) -0.12 (0.33) -0.31 (0.00)***France -0.34 (0.00)*** -0.16 (0.20) -0.18 (0.16) -0.23 (0.07)*Germany -0.27 (0.04)** -0.02 (0.88) -0.05 (0.70) -0.13 (0.35)Italy -0.15 (0.31) 0.14 (0.35) 0.15 (0.32) -0.19 (0.21)Japan -0.04 (0.30) 0.00 (0.90) 0.04 (0.22) 0.06 (0.12)
Panel C: Growth stocks returnsU.S. -0.13 (0.00)*** -0.08 (0.04)** -0.07 (0.08)* -0.03 (0.39)Canada -0.25 (0.11) 0.46 (0.00)*** 0.37 (0.03)** 0.03 (0.82)U.K. -0.30 (0.00)*** -0.07 (0.41) -0.12 (0.17) -0.13 (0.11)France -0.12 (0.18) -0.06 (0.52) -0.06 (0.50) -0.01 (0.90)Germany -0.28 (0.04)** -0.01 (0.94) -0.10 (0.46) -0.15 (0.26)Italy -0.07 (0.57) 0.13 (0.30) 0.05 (0.67) -0.20 (0.10)*Japan 0.01 (0.59) 0.03 (0.17) 0.03 (0.22) 0.02 (0.43)
38