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Namhee Matheson Heidi Remmen
BI Norwegian School of Management – Thesis
Minority Expropriation : Study on Tunneling in Norway
Hand-in date:
01.09.2010
Campus: BI Oslo
Exam code and name:
GRA 1900 Master Thesis
Supervisor: Professor Øyvind Bøhren
Program:
Master of Science in Financial Economics Master of Science in Business and Economics
“This thesis is a part of the MSc programme at BI Norwegian School of Management. The school takes no responsibility for the methods used, results found and conclusions drawn.”
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i. Content
I. CONTENT ........................................................................................................................... II
LIST OF TABLES AND FIGURES .................................................................................................... IV
LIST OF APPENDIX ..................................................................................................................... IV
ABSTRACT .................................................................................................................................. V
1 INTRODUCTION ................................................................................................................. 1
1.1 BACKGROUND ......................................................................................................................... 1
1.2 MOTIVATION AND OBJECTIVES.................................................................................................... 1
1.3 RESEARCH QUESTION ................................................................................................................ 4
1.4 THESIS OUTLINE ...................................................................................................................... 4
2 THE THEORETICAL AND EMPIRICAL RESEARCH .................................................................. 5
2.1 MARKET REACTIONS TO TUNNELING ............................................................................................ 5
2.2 PROXIES FOR TUNNELING........................................................................................................... 6
2.2.1 Separation of control and cash flow rights ............................................................... 6
2.2.2 Ownership structure .................................................................................................. 6
2.2.3 Private and Public firms............................................................................................. 7
2.2.4 Legal proxies.............................................................................................................. 8
2.3 DIFFERENT FORMS OF TUNNELING ............................................................................................. 10
3 RESEARCH HYPOTHESIS AND METHODOLOGY .................................................................12
3.1 TUNNELING MECHANISM ........................................................................................................ 12
3.1.1 The Ability................................................................................................................ 12
3.1.2 The Incentive ........................................................................................................... 14
3.1.3 The Discretion .......................................................................................................... 16
3.2 TESTING FOR TUNNELING ........................................................................................................ 17
3.3 DETERMINANT OF TUNNELING .................................................................................................. 21
3.3.1 Divergence of cash flow right .................................................................................. 21
3.3.2 Large Owner’s Insider positions .............................................................................. 22
3.3.3 Second largest shareholder ..................................................................................... 22
3.3.4 Regression ............................................................................................................... 23
3.4 HYPOTHESIS SUMMARY ........................................................................................................... 24
3.4.1 Testing for Tunneling............................................................................................... 24
3.4.2 Determinant of Tunneling ....................................................................................... 24
4 DATA ................................................................................................................................25
4.1 DATA DESCRIPTION ................................................................................................................ 25
4.1.1 Data Source ............................................................................................................. 25
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4.1.2 Population and Filtering process ............................................................................. 25
4.1.3 Family group identification ..................................................................................... 26
4.2 VARIABLE DESCRIPTION ........................................................................................................... 28
4.2.1 Dependent variable ................................................................................................. 28
4.2.2 Independent variable .............................................................................................. 28
4.2.3 Control variables ..................................................................................................... 29
4.3 DESCRIPTIVE STATISTICS .......................................................................................................... 30
5 RESULT AND ANALYSIS .....................................................................................................36
5.1 REGRESSION RESULT: DOES TUNNELING EXIST? ............................................................................ 36
5.2 REGRESSION RESULT: DETERMINANT OF TUNNELING .................................................................... 38
5.3 ROBUSTNESS TEST .................................................................................................................. 40
6 CONCLUSION ....................................................................................................................42
APPENDIX ..................................................................................................................................44
REFERENCES ..............................................................................................................................61
ATTACHEMENT: Preliminary thesis report
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List of Tables and Figures
Figure 1: Insider ownership and profitability of Norwegian listed firms .......................................... 2 Figure 2: Ability and Incentive of Tunneling ................................................................................... 13 Figure 3: Ability and Incentive of Tunneling ................................................................................... 14 Figure 4: Family group tunneling example ...................................................................................... 15 Figure 5: Tunneling Flow in family group ........................................................................................ 16 Table 1: Independent variable description ..................................................................................... 24 Table 2: Conversion from Individual Owner into Family ................................................................. 26 Table 3: Family Group ..................................................................................................................... 27 Table 4: Sub sample description ..................................................................................................... 27 Table 5: Industry shock construction .............................................................................................. 28 Table 6: Corporate Finance Descriptive Statistics (1) ..................................................................... 31 Table 7: Corporate Finance Descriptive Statistics (2) ..................................................................... 31 Table 8: Corporate Governance Descriptive Statistics (1) .............................................................. 32 Table 9: Corporate Governance Descriptive Statistics (2) .............................................................. 32 Table 10: Corporate Governance Descriptive Statistics (3) ............................................................ 33 Table 11: Industry Descriptive statistics ......................................................................................... 33 Table 12: Industry distribution of sample ....................................................................................... 34 Table 13: Regression result –Testing for Tunneling ........................................................................ 36 Table 14: Regression result - Determinant of Tunneling ................................................................ 39 Table 15 : Regression result comparison to Stand Alone ............................................................... 39 Table 16 : Inter corporate investment ............................................................................................ 40 Table 17 : Regression result Robustness test .................................................................................. 41
List of Appendix Appendix 1: Tunneling Example –Aker Solution Case ..................................................................... 44 Appendix 2 : Family group identification process ........................................................................... 45 Appendix 3 : Definition of variable ................................................................................................. 46 Appendix 4: Corporate finance Descriptive statistics ..................................................................... 47 Appendix 5: Corporate governance Descriptive statistics .............................................................. 52 Appendix 6: Industry descriptive statistics - Industry Frequency ................................................... 57 Appendix 7: Industry descriptive statistics-Industry ROA ............................................................... 58 Appendix 8 : Industry descriptive statistics-Industry Asset ............................................................ 59 Appendix 9 : Industry descriptive statistics-Industry Sale .............................................................. 60
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Abstract
In this paper we empirically examine to what extent minority expropriation is
present among family firms in the Norwegian economy. In particular we
investigate a specific type of expropriation known as ‘Tunneling’: controlling
families’ transferring resources from companies where they have few cash flow
rights to ones where they have more cash flow rights. To investigate whether this
phenomenon prevails in the Norwegian economy, we use a general empirical
technique for measuring tunneling developed by Bertrand, Mehta and
Mullainathan (2002) . Based on cross sectional data for 2003, the results suggest a
significant degree of tunneling between firms controlled by common family
owner. The results also suggest that more tunneling prevails the greater the cash
flow rights between two firms diverge and the fewer shares the largest second
shareholder holds.
*Acknowledgement
We would like to thank our supervisor Professor Øyvind Bøhren for invaluable support and
feedback on our thesis as well as patience, guidance and understanding in and for our thesis
process. We would also thank Professor Bøhren for introducing us to the field of Corporate
Governance and awakening our interest and knowledge in this particular area of study. We would
also like to thank the Centre for Corporate Governance Research for providing us with the
necessary data.
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1 Introduction
1.1 Background
One of the biggest media scandals in 2009 was a transaction that occurred
between Aker ASA and Aker Solution. The majority owner of Aker ASA had sold
several firms to Aker Solution, a deal seemingly unfavorable to the minority
owners of Aker Solution. The state, as the biggest minority owner, argued that the
price was well above market value and that the minority shareholders were hurt by
the deal. Investigations of the transactions concluded that the majority owner was
within his legal rights but that the ethical aspects of the deal were questionable.
The Aker Solution case is just one of the many cases where majority owners
perform self-dealing actions that provide private benefits for the majority owner at
the expense of the minority shareholders1 . Conflicts between majority and
minority owners are one of the major themes within the field of Corporate
Governance. According to Shleifer and Vishny (1997:1), corporate governance
deals with the ways in which suppliers of finance to corporations assure
themselves of getting a return on their investment2.
Along with increasing public attention to corporate governance, research on
corporate governance has attempted to answer more fundamental questions “Is
economic value of the firm driven by governance mechanism?” and “If so, what
factors in corporate governance affects the economic value of the firm and how”?
1.2 Motivation and objectives
The theoretical foundation of Corporate Governance is the Agency Cost Theory.
Agency costs are caused by conflicting interests between the firm’s stakeholders.
These conflicts arise because stakeholders, with deviating interests, don’t
internalize the utility and wealth of other stakeholders. The main interest of
corporate governance is to reduce the agency costs and to ultimately avoid value
destructions caused by the agency costs (Jensen et al. 1976; Shleifer and Vishny
1997; Becht, Bolton, and Röell 2002; Tirole 2001).
1 See appendix 1 for relating article by BI Professor Øyvind Bøhren. Another famous International example is the Enron scandal where Thomas (2002) argue that some of the losses sustained by shareholders were as a direct result of related party transactions. 2 There are several definitions available. However the definition by Shleifer and Vishny is most consistent with purpose of our research.
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Villalonga and Amit (2006) decompose the overall agency problem into the first
and second agency problem.3 The first agency problem deals with the traditional
conflicts between outside shareholders and managers, whereas the second agency
problem deals with the conflict between majority and minority stockholders. The
second agency problem arises when a shareholder has majority control over the
firm’s assets and hence has the ability to pursue own interests at the expense of
the minority shareholders. As expressed by Shleifer and Vishny (1997:758):
“Large investors may represent their own interest, which need not coincide with
the interest of other investors in the firm .“
Figure 1 illustrates how the two types of agency costs affect the profitability of
Norwegian listed firms as insider ownership increases.(Bøhren and Ødegaard
2006). It shows that as insider ownership increases until about 40%, the
profitability increases and then decreases again. The graph can be interpreted as
net effect of first agency cost and second agency cost: that is, as inside ownership
increases up to about 40%, inside owner has incentive to monitor the manager and
thus reduce the first agency cost, leading higher profitability. However as
ownership increases beyond 40%, the second agency problem becomes dominant
and causes lower profitability in the firm. Motivated by empirical evidence and
theoretical prediction, our main interest in this study is the effect of second agency
cost on firms’ profitability.
Figure 1: Insider ownership and profitability of Norwegian listed firms *Profitability measured as Tobin’s Q ratio (total market value of firm to total book asset value). Data is from 1989-1997 *Øyvind Bøhren and Bernt Arne Ødegaard. 2006. Governance and performance revisited. I International Corporate Governance after Sarbanes-Oxley 3 Even though we make the distinction between the first and second agency problem there also exists a third agency problem: the potential conflict between owners and creditors. (Shleifer and Vishny 1997) How the majority/minority conflict interlinks with owners/creditors conflicts is mentioned in papers by La Porta et al (2000) , Berkman, Cole and Fu (2007) and Tang (2008).
11,11,21,31,41,51,61,71,8
0 20 40 60 80 100Profi
tabili
ty ( T
obin'
s Q)
Insider Ownership (%)
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There are many ways in which large owners can expropriate minority owners. We
will research on a specific type of expropriation, tunneling, as illustrated in Aker
Solution case. The term ‘Tunneling’ was originally coined to characterize
expropriation of minority shareholders in the Czech Republic. According to
Johnson et al. (2000) and Glaeser, Johnson and Shleifer. (2001) , the expropriation
of minority shareholders through the stripping of the firm’s assets was so common
that it required a new term: ‘tunneling’. The assets disappeared from the firm as if
removed through a hidden tunnel.
Johnson et al. (2000) page 22: defines tunneling as the “transfer of resources out
of a company to its controlling shareholder (who is typically also a top
manager)”. This definition has been adopted in the majority of tunneling
research. This definition is not without weaknesses. Transfer of resources can in
its widest interpretation include dividend, loans, salaries, as well as engaging in
self-dealing transactions at non-market terms. Since it’s a very wide definition;
the interpretation and hence the use of the concept throughout the literature spans
in a variety of directions. Johnsons’ definition also lacks a crucial component of
tunneling; that tunneling expropriates the minority shareholder.
We define tunneling in our paper as:
The transfer of profit or resources by controlling shareholders from companies
where they have few cash flow rights to ones where they have more cash flow
rights through 4related party transactions, which in effect leads to expropriation
of the minority shareholder(Bertrand, Mehta, and Mullainathan 2002)
In our research we will study tunneling in the Norwegian economy. Norwegian
data on non-listed and listed firms extracted from the CCGR database are made
available from the Department of Financial Economics. By Norwegian law all
limited liability firms have to publish an audited annual report. In addition the
company must “publish the identity of its CEO and its directors, and the fraction
of equity held by every owner.” (Berzins, Bøhren, and Rydland 2008:1). Most
other nations do not have these kinds of disclosure requirements for private firms.
4 Transactions between the company and another entity, where one of its’ shareholders/board members/management has ownership stakes, are referred to as “connected transactions” or “related party transactions”.
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The CCGR data base not only contains accounting data, corporate governance
data, but also data on kinship and marriage. The unique data material gives us an
exceptional position to conduct our research on tunneling.
1.3 Research question
To get knowledge about tunneling in the Norwegian economy, we will investigate
following two research questions:
1. To what degree does tunneling exist in Norwegian firm?
2. What are the major determinants for this phenomenon?
With these research questions we wish to investigate how widespread and serious
the minority-majority conflict is within the Norwegian Economy. By investigating
different firm properties and external surroundings we hope to gain more
knowledge about determinants for tunneling.
1.4 Thesis Outline
Chapter 2 introduces the major theoretical and empirical research that is related to
tunneling. Chapter 3 suggest research hypothesis relevant to answering this papers
two research questions. A description of the tunneling mechanism is presented to
give the reader a more systematic orientation to understanding the concept of
tunneling. Based on the understanding of the tunneling mechanism, testing
implications and hypothesis are presented alongside a regression model. Chapter
4 introduces the filtering and the sub sample construction process and illustrate
the observation from descriptive statistics. Chapter 5 provides result of regression
models and includes a discussion of the implications of the previously introduced
hypothesis. A robustness test of the base case is also presented at the end of this
chapter. In conclusion, Chapter 6, summaries this papers main findings and
discuss the limitation with suggestion for future research.
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2 The theoretical and empirical research
The purpose of this chapter is to investigate the existing research conducted on
tunneling and presenting theoretical and empirical insights for our research. The
existing literature aims at identifying tunneling and its impact on firm
performance and firm valuation. The literature on tunneling can be divided into
two subsections:
1. The strand that examines market reactions when a publicly listed firm
announce different types of related party transactions.
2. The strand that measures the degree of minority expropriation indirectly
through the use of proxies for the degree of expropriation.
The sections below give a summary of the two strands of research. The Chapter
concludes with a presentation of the different ways of conducting tunneling
2.1 Market reactions to tunneling
Most of the existing research conducted on tunneling has been done on publicly
traded companies. The main focus of this strand of research is to investigate 1) to
what degree valuation of listed firm is affected by related transaction, and 2)
whether investor takes the effect of related transaction into account ex-ante. By
observing market reactions to announced related party transactions, one can
estimate the impact of such a transaction by investigating movements in the
market value. This assumes that investors are able to predict the implications of
the related party transaction and value the firm accordingly (Cheung, Rau, and
Stouraitis 2006).
It has been argued that the market will demand a discount ex-ante of firms which
they think are more likely to undertake related party transactions. In such a
manner they pay a “fair” price for their stocks given the risk of tunneling. An
empirical study by Cheung et al (2006) did not find evidence that the market
anticipated expropriation ex-ante. Instead they did find that after the
announcement of a related party transaction the company could have a negative
abnormal stock returns up to 12 months later.
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2.2 Proxies for tunneling
Since the different forms of tunneling often is “hidden” in the firm’s regular
operations research on tunneling mainly take use of proxies as indicators of
tunneling. The most common proxies for tunneling are:
1. The use deviation of cash flow from control rights
2. The use of ownership structure
3. Listing status
4. The use of legal system
2.2.1 Separation of control and cash flow rights
This strand of theory and research tries to explain how minority expropriation
takes place using different forms of ownership structure mechanisms that separate
control rights from cash flow rights. The larger the gap between control rights and
cash flow rights the greater is the incentive to expropriate. (Grossman and Hart
1988; la Porta et al. 1998; Claessens et al. 2002) These studies argue that this
distinction can lead to lower shareholder value.
Bebchuk et.al (2000) lists three mechanisms that entrench minority control and
enable expropriation of minority shareholders:, pyramids, dual class shares and
cross-holdings. For Western European countries, a study conducted by Faccio and
Lang(2002) reported that both dual-class shares and pyramids are commonly used.
Yet, a study conducted by La Porta, Lopez-de-Silanes and Shleifer (1999) finds
little use of these mechanisms for Norwegian listed firms. The main rule in
Norway is that every share is granted similar rights in the company, the so called 5one-vote-one-share principle.
2.2.2 Ownership structure
The literature on ownership structure as a proxy for tunneling deals with the
ownership structure in the firm such as the size and distribution of shareholders
and ownership types that is present in the firm. Concentrated ownership is
normally associated with family ownership. When a family has ownership control,
they most of the time also keep insider positions (Claessens, Djankov, and Lang 5 However, the firm can in its articles of incorporation implement dual class shares according to asl § 4-1. Based on media coverage, it seems that dual class shares in private firms are used as a way for the founder to keep control, while at the same time distribute wealth to his children. However, we have yet to find any research relating to what kind of relationship the owners of the two classes of shares have to one another.
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2000; La Porta, Lopez-de-Silanes, and Shleifer 1999) . Almedia and Wolfenzon
(2006) suggest that diverting corporate resources are more likely to take place in
family business groups. Cronquist and Nilsson (2003) supports this view by
arguing that when families are involved in the management of affiliated firms they
have larger discretion of manipulation of corporate wealth.
2.2.3 Private and Public firms
Most 6 of the prior research on tunneling has been conducted on publicly listed
firms. Reasons for this can be that the effect of transactions (tunneling) on public
firms easier can be observed in the company’s market values. Public firms are
also generally subject to stronger transparency requirements of enclosing
company information to the market. This is problematic in a sense that private
firms are actually the dominant form of firm in the economy. The exclusion of
unlisted firms creates bias in terms of ownership structure and valuation. It also
leads to considerable underestimates, as unlisted firms can have direct and indirect
ownership in listed corporations. This can lead to a possible underreporting of the
measures for ultimate ownership and control. (Claessens et al. 2002)
Literature and theories on corporate governance and corporate finance suggest
that private firms (as opposed to the listed firms) generally have a) higher
ownership concentration (which is presumably major source of second agency
problem) and b) are less transparent in conducting transactions, which might have
same effect as low legal protection (Shleifer and Vishny 1997; Berzins, Bøhren,
and Rydland 2008; McConnell, Servaes, and Lins 2008).
Since literally (almost) all research on tunneling have been conducted on listed
firms, we have to question whether the knowledge gained from research on listed
companies can be applicable on unlisted firms. According to Berzins and Bøhren
(2009) the answer is most likely no. They argue that unlisted firms operate under
different external conditions than listed firms. They list the main external
conditions as: financial market, transparency and regulations.
6 Some studies have been conducted on private firms. Gutierrez and Tribo (2008) examines how multiple large shareholders share control and extract private benefits in closely-held corporations in unlisted Spanish firms. Cheung et al.(2008) incorporates tunneling transactions between listed firms and non-listed subsidiaries in their research on connected transactions in China.
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2.2.4 Legal proxies
The majority shareholders opportunity and incentive to conduct tunneling is
expected to be affected by the laws protecting the minority shareholders and the
quality of the enforcement of these laws. Several studies have indicated that there
is a great deal of tunnelling in countries with weak legal systems. (Johnson et al.
2000; Friedman, Johnson, and Mitton 2003; La Porta et al. 1998; La Porta et al.
2000)
To protect the minority shareholder from tunneling, the Norwegian legal system
includes several laws that impose restriction on transactions that can be of conflict
of interests between a particular shareholder, board member or management and
the company. The Norwegian Limited Liability Companies Act, “Aksjeloven”
(asl), and the Norwegian Public Limited Liability Companies Act
‘Allmennaksjeloven’ (asal), are the main laws regulating behavior related to
connected transactions. In addition the Norwegian Accounting Law,
“Regnskapsloven” (rskl), states disclosure and accounting requirements in relation
to connected transactions.
The main paragraphs constructed to restrict minority expropriation are:
o asl. §6-27(1) and asal §6-27(1)
o “ A member of the board of directors may not participate in the
discussion or decision of issues which are of such importance to the
board member in question, or to any connected person 7 of said board
member that the board member must be regarded as having a major
personal or financial special interest in the matter. The same shall
apply for the general manager”(Norge 2009:44)
o asl. § 6-28(1) and asal §6-28(1)
o “The board of directors or other parties who represent the company
[…] must not take any action that confer on certain shareholders or
other parties on unfair advantage at the expense of other shareholders
or the company” (Norge 2009:44)
7 The law considers connected persons to be persons the shareholder has family relations to such as spouse, children, parents and siblings. The parents and siblings (and their spouses) of the shareholder’s spouse are also considered connected persons (Norge 2009).
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Basically, this means that a board member, representing a shareholder, is not
allowed to partake in decisions where the shareholder or the shareholder’s close
family members could have personal interests. This is resolved by having the
board member “leaving the boardroom” when such decisions are discussed.
Some transactions are considered too big to be approved by the board alone.
Transactions which surpass 10 % (AS) or 5% (ASA) of the firms share capital
also require approval from the general meeting to be binding for the company
(Norge 2009:asl/asal §3-8(1)).
Not all decisions involving related party transactions require the same strict
impartiality. The recommendation on the law of the Norwegian Limited Liability
Companies Act states that one should put less weight on conflict of interest when
the company is conducting regular business transactions8. The argument is that a
strict regulation of related party transactions might be out-weighted by the
efficiency needs of the firm (Haagensen and Lie 2004). The efficiency transaction
hypothesis argues that related party transaction can be beneficial to the firm since
they reduces transactions cost, uncertainty and mitigate hold-up problems (Stein
1997; Ryngaert and Thomas 2007).
Even though these regulations are designed to protect the company and its
minority shareholders, they are far from water-tight. The indirect influence of a
partial board member on the other board members can color the boards’ decision.
The notion of what is a “normal business activity” and what is “normal price” are
also very interpretive, as illustrated by the Aker Solution case.
Due to the waste grey area that the majority shareholder can operate under it
should be noted that the high legal costs of contesting such a transaction often can
lead the minority shareholder either to accept the transaction or to exit the firm
instead of confronting. If the minority owner in a listed firm wishes to exit, he
can simply sell the stock. In non-listed firms, he has virtually no easy exit
strategy. In unlisted firms, the minority owner has according to asl §§ 4-24 ,4-25
8The Law defined a regular business transaction as : “ Agreements entered into as part of the normal activities of the company and which are based on a price and other terms and conditions which are normal for such a transaction”(Norge 2009:asl/asal §3-8(1))
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the right to demand to be bought out if there exists a serious and enduring clash of
interests between the shareholders regarding the operations of the company. This
operation requires however both that the minority shareholder institutes legal
proceedings, and that the company conducts a general assembly before the
minority shareholder can exit the company.
The law creates warnings signs and exit strategies for the minority shareholders
when a large shareholder passes certain ownership stakes in the firm. For listed
firms the Norwegian Securities Act (“Verdipapirhandelloven” abbreviated to
“vphl”) makes shareholder obliged to flag ownership when they pass certain
ownership stakes (vphl 4-2). They are also required to make a compulsory bid for
all outstanding shares when they pass 1/3 9of all outstanding votes in the firm
(vphl §6-1). The same requirement for bid happens when the ownership stake
passes 40 % and 50 % (vphl §6-6.).
2.3 Different forms of tunneling
How tunneling is conducted and its impact on the majority owner depends on the
resource being tunneled. Johnson et al (2000) separates tunneling into two forms: 1) the transfer of resources from the firm through self-dealing transactions, and 2)
financial transactions that discriminate against the minorities.
Transfer of resources through self-dealing transactions can include outright theft
and fraud. However, most transactions that are considered tunneling are not
criminal offences but related party transactions where the majority participant
gains at the expense of the minority.
Atanasov, Black and Ciccotello (2008) expands Johnsons et al’s framework by
dividing the first form of tunnelling into two categories: Cash flow tunnelling and
Asset tunnelling. They rename tunnelling through financial transactions as equity
tunnelling. Whether or not a resource transfer falls into the category of Cash flow
tunneling or Asset tunneling depends on how the transaction affects the firm’s
future cash generating capacity.
9 This percentage was lowered from 40% in the 1997 law to 1/3 in the 2007 law.
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Cash flow tunneling removes a portion of the current years’ cash flow (profit), but
it does not significantly affect the firm’s future cash generating capacity. Cash
flow tunneling hence does not directly affect the balance sheet. Examples of cash
flow tunneling are the sale of outputs to an intermediary controlled by insiders for
below-market prices; or purchase of inputs at above-market prices. The purchase
of services by related party transactions also falls within this category. Excessive
executive salaries or perquisites and small-scale sales or purchases of assets also
fall within this category.
Asset tunneling involves the transfer of long-term (tangible or intangible) assets
from or to the firm. They are distinct from cash-flow tunneling because the scale
of the transfer has a permanent effect on the firm's future cash-generating capacity.
Examples of asset tunneling include overpriced/underpriced purchases/sales of
assets, or investments in an affiliated firm on better terms than the affiliate could
obtain on its own.
Equity tunneling increases the controller's share of the firm's value, at the expense
of minority shareholders, but does not directly change the firm’s productive assets.
Examples of equity tunneling are dilutive offerings, freeze-outs of minority
shareholders, loans to insiders (which will not be paid in bad states of the world),
equity-based incentive compensation which exceeds market level and insider
trading.
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3 Research Hypothesis and Methodology
Chapter 3 presents the research hypothesis used to answer the two research
question; 1) does tunneling exist in Norwegian firm? , and 2) what are the major
determinants for this phenomenon? The chapter begins with a description of the
tunneling mechanism to give the reader a systematic understanding of the
tunneling concept. Based on the understanding of tunneling mechanism, we move
on to the testing implication of the first research question, followed by our
hypothesis and regression models. Chapter 3 concludes with a hypothesis
summary and the regression model presented in this chapter.
3.1 Tunneling Mechanism
Having put the various theories in Chapter 2 together, we argue that tunneling is
likely to occur when a combination of three factors prevails. These three factors
are: (1) the large shareholder has sufficient control to expropriate minority
shareholder, (2) the large shareholder has the incentive to tunnel ,that is tunneling
has positive effect on his net worth , and lastly (3) the firm’s environment
provides discretion to make easily hide tunneling. These three factors are the
foundation of the hypothesis and will be referred to as (1) the ability, (2) the
incentive, and (3) the discretion in same order. An explanation of each factor is
presented below.
3.1.1 The Ability
To understand first two factors (the ability and the incentive) conceptually,
consider two firms A and B owned by common shareholder (denoted as ‘Large
Owner’ for the following). In addition assume ‘Large Owner’ has 10ultimate
ownership share (or cash flow right) of X% and Y% respectively in firm A and B.
Also consider the conditions when large owner tunnels 11F amount of resource
from Firm A to B as described in Figure 1.
10 To measure cash flow fraction, we will use ultimate cash flow right (hereafter simply referred to as cash flow right) so that all the possible structures such as pyramid and cross holdings can transform to simple form as figure above. Voting right, cash flow right will be interchangeable in our case. 11 F can be any form described in 2.3. Different forms of Tunneling.
Tunneling (GRA 1900 Master Thesis)
Figure 2: Ability and Incentive of Tunneling
In order to make the tunneling feasible,
owner’ need to have
expropriation is initiated by
firm for his own interest
be either in the form
informal control, which may
or boad seat. We will
the following hypothesis.
For formal cont
definition for the following test
define ‘sufficient control
majority greater than 50%
the following two reasons.
and thus always entails control in the firm
useful to control the effect of first agency problem
which shows that firm’s per
reduction of first agency problem
more than 50%, we can
confusing with
logic descibed
in our study as formal
Tunneling (GRA 1900 Master Thesis)
Page 13
: Ability and Incentive of Tunneling
n order to make the tunneling feasible, it is easy to und
’ need to have ‘sufficient control’ in Firm A. This is because
expropriation is initiated by the large shareholder, who can in fact influence the
firm for his own interest. Here the meaning of sufficent contro
be either in the form of formal control given by voting right
nformal control, which may magnify the control right, such as insider ownership
or boad seat. We will further describe how informal control affects on tunneling in
the following hypothesis.
For formal control or voting right, it is of importance to clarify and limit the
definition for the following test because there are various thresholds used to
sufficient control’. Among the various thereshold
majority greater than 50% voting right as a lower bound of the control because of
two reasons. First absolute majority is absolute threshold for
thus always entails control in the firm. Secondly and more importantly it is
to control the effect of first agency problem in light of empirical evidence,
shows that firm’s performance increases up to about 40
reduction of first agency problem (Bøhren and Ødegaard 200
more than 50%, we can therefore test the effect of second agency problem without
the first agency effect. Reflecting on the empirical evidences and
above, we chose ownership concentration greater than
in our study as formal control to ensure the ability of tunneling.
01.09.2010
t is easy to understand that ‘ Large
. This is because the
the large shareholder, who can in fact influence the
Here the meaning of sufficent control is generic. It might
control given by voting right or in the form of
, such as insider ownership
control affects on tunneling in
to clarify and limit the
there are various thresholds used to
various theresholds, we chose absolute
as a lower bound of the control because of
absolute threshold for control
and more importantly it is
light of empirical evidence,
formance increases up to about 40 % due to the
(Bøhren and Ødegaard 2006). By choosing
test the effect of second agency problem without
empirical evidences and
greater than 50% range
control to ensure the ability of tunneling.
Tunneling (GRA 1900 Master Thesis)
3.1.2 The Incentive
Even though sufficient control is a necessary condition for tunneling,
necessarily ensure expropriation
reduce value in Firm A deliverately if his or her net worth is expected to be
unaffected ( or even negative for obvious reason).
can infer that ‘ Large
initiated by tunneling is expected to be strictly positive.
As an example, a
CF right 51% and 100% in Firm A and Firm B respectively. If
is able to tunnel this earning to
increased to $1,000 in firm B, relative to $510 if the earnings were kept in firm A
Because of the
of firm A to firm B.
Figure 3: Ability and Incentive of Tunneling
Extending the example to the general case, ‘Large owner’ would
benefit and thus have an incentive to tunnel
that is (� � �� �right in Firm B than Firm A.
type as ‘Low CF firm’ and firm B type as ‘ High CF firm’ from now on.
The setting described so far is most simplistic setting
extended into a more realistic setting. So far the owner type of the ‘Large Owner’
has not been explicitly specified as an individual or any other type of owner.
described in Chapter 2,
business groups
Tunneling (GRA 1900 Master Thesis)
Page 14
The Incentive
Even though sufficient control is a necessary condition for tunneling,
necessarily ensure expropriation. ‘ Large owner’ does not have a clear incentive to
reduce value in Firm A deliverately if his or her net worth is expected to be
unaffected ( or even negative for obvious reason). In view
can infer that ‘ Large owner’ has incentive to tunnel when his
tunneling is expected to be strictly positive.
As an example, assume that Firm A has $ 1,000 earnings and ‘Large owner
% and 100% in Firm A and Firm B respectively. If
is able to tunnel this earning to from Firm A to Firm B, his benefit would
increased to $1,000 in firm B, relative to $510 if the earnings were kept in firm A
net gain the ‘Large owner’ will look for a way to divert them out
of firm A to firm B.
ty and Incentive of Tunneling
Extending the example to the general case, ‘Large owner’ would
and thus have an incentive to tunnel if tunneling generates positive income
� �� � �� 0 ; � � , when the large owner has more cash flow
in Firm B than Firm A. Reflecting this argument, we will refer to firm A
type as ‘Low CF firm’ and firm B type as ‘ High CF firm’ from now on.
The setting described so far is most simplistic setting of all.
extended into a more realistic setting. So far the owner type of the ‘Large Owner’
has not been explicitly specified as an individual or any other type of owner.
in Chapter 2, diverting resources are more likely to take pla
s (Almeida and Wolfenzon 2006) and moreover
01.09.2010
Even though sufficient control is a necessary condition for tunneling, it does not
. ‘ Large owner’ does not have a clear incentive to
reduce value in Firm A deliverately if his or her net worth is expected to be
view of this argument, we
’ has incentive to tunnel when his net worth effect
earnings and ‘Large owner’ has
% and 100% in Firm A and Firm B respectively. If the ‘Large owner’
irm B, his benefit would be
increased to $1,000 in firm B, relative to $510 if the earnings were kept in firm A.
’ will look for a way to divert them out
Extending the example to the general case, ‘Large owner’ would realize ex post
if tunneling generates positive income
ge owner has more cash flow
Reflecting this argument, we will refer to firm A
type as ‘Low CF firm’ and firm B type as ‘ High CF firm’ from now on.
. The argument is now
extended into a more realistic setting. So far the owner type of the ‘Large Owner’
has not been explicitly specified as an individual or any other type of owner. As
diverting resources are more likely to take place in family
moreover family firm is the
Tunneling (GRA 1900 Master Thesis)
most dominant firm type in the Norwegian economy
Rydland 2008). In light of
not individual owner.
A more realistic ownership structure and hence tunneling relationship can also
involve group structures as well as bilateral firm relationship.
as a group owns 4
65%, 75% and 90
in simple setting, tunneling predicts that ‘Large owner’ has incentive to divert
between any combinations of two firms in the group as
between two firms are positive
Figure 4: Family group tunneling example
For example (figure
have incentive to tunnel to all
his cash flow right in firm D is lowest of them all. Likewise
from firm C to firm B and
can infer that the firm with highest cash flow right in the group is
recipient in tunneling relationship. By the same logic, the firm with lowest cash
flow right in the group is only expropriated.
(lowest) cash flow
distinguish from other type of firms in the group (Mid CF firm).
12 Group of personal owners associated based on kinship and marriage.
Tunneling (GRA 1900 Master Thesis)
Page 15
most dominant firm type in the Norwegian economy (Berzins, Bøhren, and
. In light of these arguments, our unit of analysis will be
not individual owner.
A more realistic ownership structure and hence tunneling relationship can also
involve group structures as well as bilateral firm relationship.
as a group owns 4 firms and let their sum of ultimate ownership
d 90% respectively as described in figure 3. Based on the argument
in simple setting, tunneling predicts that ‘Large owner’ has incentive to divert
between any combinations of two firms in the group as long
between two firms are positive.
: Family group tunneling example
For example (figure 4) for the perspective of firm D, the ‘Large Owner’ would
have incentive to tunnel to all the three other firms (A,B,C)
his cash flow right in firm D is lowest of them all. Likewise
C to firm B and A, and from firm B to firm A. From this example, we
can infer that the firm with highest cash flow right in the group is
recipient in tunneling relationship. By the same logic, the firm with lowest cash
flow right in the group is only expropriated. The firm in the group with
est) cash flow rights will be referred to as Max (Min) CF firm in order to
h from other type of firms in the group (Mid CF firm).
roup of personal owners associated based on kinship and marriage.
01.09.2010
(Berzins, Bøhren, and
these arguments, our unit of analysis will be family12
A more realistic ownership structure and hence tunneling relationship can also
involve group structures as well as bilateral firm relationship. Consider family X
firms and let their sum of ultimate ownership in each firm, 55%,
Based on the argument
in simple setting, tunneling predicts that ‘Large owner’ has incentive to divert
long as cash flow wedge
the ‘Large Owner’ would
(A,B,C) in the group because
his cash flow right in firm D is lowest of them all. Likewise he would tunnel out
from firm B to firm A. From this example, we
can infer that the firm with highest cash flow right in the group is the only
recipient in tunneling relationship. By the same logic, the firm with lowest cash
The firm in the group with highest
as Max (Min) CF firm in order to
h from other type of firms in the group (Mid CF firm).
Tunneling (GRA 1900 Master Thesis)
Figure 5: Tunneling Flow in family group
As minimum cash flow
internalize more due to increase in loss compared to benefit. Therefore b
certain ownership point it is
decreases. Reflecting this argument
flow right in minimum cash flow firm and assume that beyond this point
tunneling does not prevail in
To gather up two factors
above, tunneling is
1. A family owns more than two firms
ownership
2. The maximum ownership in the
minimum ownership.
3. The minimum ownership in the group exceeds 80%.
From this point
will be referred to
selection criteria
group) which will
3.1.3 The Discretion
Although the combination of
tunnel could be perceived as creating conditions that could increase the risk of
tunneling, theory predicts that
would also have to take into consideration the cost of
Tunneling (GRA 1900 Master Thesis)
Page 16
: Tunneling Flow in family group
minimum cash flow right in the group increases, the large owner is expected to
internalize more due to increase in loss compared to benefit. Therefore b
certain ownership point it is expected that the expropriation sign
Reflecting this argument, we selected a cut-off
flow right in minimum cash flow firm and assume that beyond this point
tunneling does not prevail in the group.
To gather up two factors (ability and incentive) and generalize the arguments
tunneling is likely to occur when:
family owns more than two firms which it has ultimate sum of
ownership greater than 50%.
maximum ownership in the group is strictly greater than the
minimum ownership.
The minimum ownership in the group exceeds 80%.
From this point, a group of firms that fulfills the three conditions mentioned above
will be referred to family group and thus call three conditions as
selection criteria. The three criteria will be used to find the sub sample (
will be discussed in Chapter 4.
Discretion
Although the combination of the incentive and the ability
tunnel could be perceived as creating conditions that could increase the risk of
theory predicts that these condition are not yet sufficient.
would also have to take into consideration the cost of someone else finding out
01.09.2010
increases, the large owner is expected to
internalize more due to increase in loss compared to benefit. Therefore beyond
the expropriation significantly
point of 80% of cash
flow right in minimum cash flow firm and assume that beyond this point, the
and generalize the arguments
which it has ultimate sum of
group is strictly greater than the
The minimum ownership in the group exceeds 80%.
, a group of firms that fulfills the three conditions mentioned above
conditions as family group
the sub sample (family
for ‘ Large owner’ to
tunnel could be perceived as creating conditions that could increase the risk of
t yet sufficient. ‘Large owner’
someone else finding out
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 17
about the tunneling transaction. In other word, the possibility of tunneling is
intrinsically related to discretion, discretion that others cannot easily restrict
(Dyck and Zingales 2004). Such discretion for ‘Large owner’ to conduct
tunneling depends on the firm environment.
3.2 Testing for Tunneling
Tunneling is likely to occur in subtle and hard-to-detect ways by large
shareholder’s intention (Bertrand, Mehta, and Mullainathan 2002). Due to this
reason, quantifying the extent of tunneling is proven to be a difficult task. This
means that we can only use indirect measures. The only way to measure tunneling
is to investigate an observable effect expected to be the result of tunneling. Rooted
in corporate governance research, our fundamental ground is that corporate
governance mechanism to some extent affects firm’s performance. Corporate
governance variables are expected to affect the potential and degree of tunneling
which again manifests itself in the firm’s performance. To be more precise, it is
expected that ‘Recipient firm’ shows higher performance and ‘Tunneled firm’
shows lower performance relative to the performance that would be expected in
the absence of tunneling.
If one can 13measure correctly the performance in the absence of tunneling for
each firm or ‘the fundamental earning’, then tunneling is simply measured as the
difference between the fundamental earning and the observable earning (earning
diversion for the following): positive for the recipient in a tunneling relationship
and negative for the tunneled firms. Another prediction of tunneling is such that
the negative abnormal earning of tunneled firms causes the positive abnormal
earning of recipient. This can be verified by testing the causal relationship
between abnormal earnings of two group firms.
To combine these arguments, tunneling predicts that when earning diversion is
measured as the difference of observable earning from fundamental earning the
following statements will be observed:
13 It is unrealistic but the purpose of this part is conceptual understanding. We will discuss more possible testing implication later on. For the following discussion we first would like to say that our model is extensively based on the general model for quantifying tunneling suggested by Bertrand, Mehta, and Mullainathan (2002) (denoted as BMM model for the following).
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 18
1. Positive earning diversion for recipient firms as a group as oppose to
negative earning diversion for tunneled firms as a group.
2. Causal relationship: negative earning diversion for tunneled firm is cause
of resulting positive earning diversion for recipient firm.
While conceptually appealing, the problem for empirical testing arises in a sense
that we cannot measure the fundamental earning perfectly. It is in fact proven as
difficult as measuring diversion. Consequently, one needs to use best proxy to the
fundamental earning. BMM model suggest that one of the good candidates is the
industry movement to which each firm belongs to. A firm’s industry affiliation is
expected to influence the individual firm’s earning to a large extent because
different industries operate under different industry specific conditions and
general economic conditions. For example will industry specific regulations,
macro conditions and competition affect a firm’s earning, and hence the firms in
the same industry will be exposed to similar condition on their earnings. The
BMM model suggests that industry movement is not actual fundamental earning,
but more likely to be a major exposure for the individual firm. The BMM model
calls industry movements as ‘shock’ to the firm’s performance level. Consistent
with the use of term in BMM model, we will also use the term ‘shock’ referring to
industry performance.
The important point to take into account is that this proxy works for aggregate
industry level base not individual firm. For instance individual firm’s performance
can deviate from the industry average performance for numerous reasons.
Observations of significantly low (or higher) performance for the group of
‘Tunneled firm’ (or ‘Recipient firm’), after incorporating control variables, can be
interpreted as the diversion, caused by some systematic factor suspected to be
tunneling. Suppose that the world price of gold rises, causing the gold industry’s
profits to rise on average. In other words, if the rise in gold prices increases profits
in comparable firms by $100, then one can assume that if the reported earning is
$90, then $10, on average, has been diverted away in simple setting. As a measure
of industry performance, we will use industry median ROA (return on asset) and
ROA for firm level performance.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 19
To make comparison, family group defined in previous section is first identified
before Max CF firm and Min CF firm are identified among the family groups. In
addition, the sample contains firms where family owners don’t have ownership
stakes in any additional firms. These firms are referred to as ‘Stand_alone’. Our
primary method will be to compare the difference between sub sample groups:
Stand_alone, family group, Max CF firms, and Mid CF firms. If there are
significant differences between groups in the direction expected, we will conclude
that the data support our hypothesis.
With the proxy for fundamental earning and observed earning at hand and
construction of sub groups, the next step is to design the empirical model and
describe the testing hypothesis for our first research question ‘Does tunneling
exist?’
First it is expected that ‘family group’ is less sensitive to industry shock than
‘Stand_alone’ firms. This is because tunneling predicts that earning is to some
degree lost during the transaction between firms in the group while stand alone
firms have no such influence. Consequently ‘Group firm’ is expected to be less
sensitive to industry shock. Therefore our hypothesis states:
Hypothesis A 1): ‘Family group’ is expected to be less sensitive to its own
shock than ‘Stand_alone’.
Let ������ be a dummy variable for whether firm i is in a group or not. To test
this hypothesis, the following regression is estimated:
��� � = + � �� _�ℎ���� + � ������ ∗ �� _�ℎ���� + � �� ����� (1)
, where Controls are other variables that might affect firm performance and
Own_Shock is industry shock measured as industry median. The coefficient b
indicates how sensitive firms are, in general, to industry shock. The interaction
term asks whether group firms are differentially sensitive to industry performance.
If they are less sensitive, as tunnelling would predict, then c should be negative.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 20
The first regression tests for reduced sensitivity of ‘family group’ relative to
‘Stand-alone’. We now turn to testing whether, among ‘family group’, ‘Min CF
firm’ show less sensitivity than average group firm and ‘Max CF firm’ is more
sensitive to own shock than average group. Recall the example in figure 2 and 3.
We conclude that Max CF firm is only recipient while other can be somewhat
expropriated. Hence Max CF firm is expected to be more sensitive to its own
shock compared to other in the group. Likewise Min CF firm is only expropriated
and thus less sensitive than average to own shock. Therefore we suggest:
Hypothesis A 2): ‘Max CF firm’ is expected to be more sensitive to its own
shock than the firms in the same group and‘Min CF firm’ is expected to be
less sensitive to its own shock than the firms in the same group.
Let �_��� ( �_��� ) be a dummy variable for whether firm i is in ‘Max CF firm’
(‘Min CF firm’) group or not. We then estimate the following regression for the
sample of ‘family group’ only.
��� � = + � �� ������ + � ���� ∗ �� ������ +� �_��� ∗ �� _�ℎ���� + � �� ����� (2)
As before, the interaction term measures differential sensitivity. If ‘Max CF firm’
is more sensitive than average, we would expect c to be positive. Likewise if ‘Min
CF firm’ is more sensitive than average, we would expect d to be negative.
The most critical part of test is to verify whether diversion from fundamental
earning for tunnelling pair has causal relationship. For testing we assume that
‘Max CF firm’ ROA responds to industry shock of firms in the group as a whole.
We will refer the average of industry shock of the firms in the group other than
itself as group shock. We would also expect that ‘Min CF firm’ does not respond
to group shock in the group to confirm not only correlation but also the causal
relationship. Thus we suggest that:
Hypothesis A 3): ‘Max CF firm’ is expected to be positively sensitive to
group shock while ‘Min CF firm’ is expected to be insensitive to group
shock.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 21
Let �_��� ( �_��� ) be a dummy variable for whether firm i is in ‘Max CF firm’
(‘Min CF firm’) group or not and �����_�ℎ��� as group shock as defined. We
then estimate the following regression for the sample of ‘family group’ only like
the previous test.
�� � = + ���_�ℎ���� + � � ∗ �����_�ℎ���� + � �_��� ∗ �����_�ℎ����+ � �_��� ∗ �����_�ℎ���� + � �������� (3)
It is worth noting that we control for the firm’s own shock. This control means
that we do not confuse an overlap of industry between firms in the group with the
flow of tunneling. A significant and positive coefficient d would suggest that
‘Max CF firm’ is in fact sensitive to industry shock of other firms in the group. A
further prediction of tunneling is that ‘Min CF firm’ is insensitive to group shock.
If this prediction is true, we would expect c to be insignificant.
3.3 Determinant of tunneling
In this section we suggest several hypotheses to answer our second research
question ‘What are the major determinants for tunneling?
3.3.1 Divergence of cash flow right
As explained in tunneling mechanism, the divergence of cash flow right fraction
in the two firms is main incentive for tunneling. By the same logic we can infer
that the incentive is greater when the divergence increases. This is because the
large shareholder loses relatively less than the gain he achieves from tunneling.
For example in figure 2 and 3, we expect that minimum cash flow firm is more
expropriated than firm B while both firms are expected to be tunneled.
Hence we expect that:
Hypothesis B 1): The incentive of tunneling increases as divergence
increases between the cash flow rights in a firm in the family group and
maximum cash flow firm in the same group.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 22
3.3.2 Large Owner’s Insider positions
The previous hypothesis describes how ‘Large owner’s incentive to tunnel
changes. This section describes how the ability side of ‘Large owner’ affects
tunneling. As discussed, ‘sufficient control’ to make tunneling occur can be either
formal control or informal control. We argue that informal control can also affect
on tunneling through the effect on ‘Large owner’s ability to tunnel. One of the
most widely discussed informal controls is insider ownership. Morck et al. (1988)
argue that powerful insiders may entrench themselves and expropriate wealth
from outside owners. Insider positions give discretion over day-to-day business
which particularly increases the risk of cash flow tunneling. Legally, this can be
linked to the relaxation in the regulation of related party transactions concerning
regular business operations. We will examine how insider ownership of the
largest family owner affects on tunneling in the case where family has CEO or
board seats.
Therefore,
Hypothesis B 2): When the large shareholder holds insider positions, greater
degree of tunneling is expected.
3.3.3 Second largest shareholder
The existence of a minority shareholder with a significant ownership stake can
function as a prevention mechanism of tunneling. If the majority shareholder is
monitored it will reduce his or her incentives and/or ability to conduct
expropriation. By the same logic as the tunneling argument, a second
shareholder’s incentive to monitor also depends on the cost-to-benefit ratio he or
she is facing. If a minority shareholder holds a marginal stake in the firm it’s
assumed that the costs of monitoring will be too high to ensure monitoring
relative to the gains. (Jensen and Meckling 1976)(Demsetz and Lehn 1985).
Consequently Pagano and Röell (1998) predict that the size of the equity stake of
the second largest shareholder affects this shareholders incentive to monitor the
majority shareholder, hence affecting the degree of tunneling. While empirical
research suggests the positive effect of size of the equity stake of the second
shareholder, the legal framework indicates minimum share required to contest the
largest shareholder (according to Bloch and Hege (2001) contestability). If a
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 23
shareholder or a group of shareholder holds more than 10 % of the voting shares
in a limited liability company (5% in a listed company) they can:
− demand an extraordinary general meeting (asl § 5-6)
− demand an inquire regarding specific aspects of the management or the
account (asl § 5-25)
− bring a claim for damages against the management or other owners (asl §
17-4)
Since our unit of analysis is family not individual, we define the second largest
shareholder as a personal owner who is outside of largest family and has largest
share among non-family shareholders. Based on the arguments above we expect
that the ownership share of the second largest shareholder affects the largest
shareholder opportunity to expropriate. Therefore,
Hypothesis B 3): The existence of a large non-controlling family member
shareholder works as a corporate governance mechanisms. Thus reduction in
the ownership share of second largest shareholder increases the possibilities of
tunneling.
3.3.4 Regression
For the hypothesis related to the determinants of tunneling, we will estimate the
following regression. Let ������ be the independent variable representing each
hypothesis and the rest of variables consistent with the previous regression
equations. We then estimate the following regression for the sample of ‘family
group’.
��� � = + � �� _�ℎ���� + � ������ ∗ �� _�ℎ���� + � �� ����� (4)
A significant coefficient c would suggest that the independent variable actually
influence the sensitivity of its own shock. The expected signs of each independent
variable are presented in table 1.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 24
Table 1: Independent variable description
Hypothesis Factor Description Abbreviation Expected Sign
B 1 Cash flow wedge Wedge of cash flow right between
respective firm and maximum cash flow firm in the same family group
CF -
B 2
Share of the second largest shareholder
The share of the second largest shareholder(largest personal owner outsider of the controlling family)
Second +
B3 Insider position
CEO Controlling family has CEO. CEO - Board Seat
Controlling family has chair. Board -
3.4 Hypothesis summary
3.4.1 Testing for Tunneling
Hypothesis A 1): ‘Family group’ is expected to be less sensitive to its own
shock than ‘Stand_alone’.
Hypothesis A 2): ‘Max CF firm’ is expected to be more sensitive to its own
shock than the firms in the same group , and ‘Min CF firm’ is expected to be less
sensitive to its own shock than the firms in the same group.
Hypothesis A 3): ‘Max CF firm’ is expected to be positively sensitive to group
shock while ‘Min CF firm’ is expected to be insensitive to group shock.
3.4.2 Determinant of Tunneling
Hypothesis B 1): The incentive of tunneling increases as divergence
increases between the cash flow rights in a firm in the family group and
maximum cash flow firm in the same group.
Hypothesis B 2): When the large shareholder holds insider positions, greater
degree of tunneling is expected.
Hypothesis B 3): The existence of large non-controlling family member
shareholder works as a corporate governance mechanisms. Thus a reduction in
ownership share of second shareholder increases the possibilities of tunneling.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 25
4 Data
4.1 Data Description
4.1.1 Data Source
In this thesis we use data from the CCGR database. The database provides
accounting, corporate governance data and ownership data (containing ownership
ID and share in each company) for all Norwegian limited liability firms. With this
data we will do cross sectional data analysis for year 2003. We selected this year
as it appear as the most “neutral year”, avoiding the effects of 9/11 (2001), the tax
reform of 2005 (Norge 2004) ,and any affects associated with the current financial
crisis.
4.1.2 Population and Filtering process
The CCGR database for accounting, corporate governance variable contains a
sample of 155,996 firms in 2003. For a firm to be able to tunnel the firms have to
be active. Hence we exclude non operating firms that 1) do not have any asset
(total asset) and 2) operating income in 2003. We also exclude financial firms
because they are subject to strict regulations which reduce the risk of tunneling.
Since it is critical for our test to use the industry performance, we exclude the
firms with missing industry code. Having filtered non-operating firms and
financial / missing industry firm we are left with 127,306 firms. For ownership
database, the CCGR database in 2003 does not provides ownership ID for all the
reported firms contained in accounting/ corporate governance data: the number of
observed firms in ownership database is 132,670 firms. Hence we further filtered
the firm which miss the ownership data and obtained 111,539 firms. We refer to
this sample as overall economy sample. From the overall economy sample the
sample in our interest is the firms in which largest family sum of ownership
(item_15302 in the database) is strictly greater than 50%. We observed 71,832
firms which meet this criterion as opposed to 39,707 firms for the rest. Further we
exclude 1,897 firms 14we could not find the largest family owner identification.
As a result we get 69,935firms. This is our testing sample and for the following
we refer it as family firms.
14 See the description in Appendix 2: Family group identification process.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 26
4.1.3 Family group identification
As described in chapter 3 briefly, we need first to construct sub samples from
family firm: ‘family group’ and ‘Stand_alone’. To identify any links by common
family owner, family identification and its ownership stake in each firm is critical
information for testing. However we could not get the family membership data
regarding which owners construct family groups due to the data restriction. Since
this information is key information for this study, we used indirect measures to
estimate the match between ownership ID and family group membership15. As a
result, we classified individual owner of 80,801 observed in family firm into
53,064 families with its own family ID.
The table 2 shows number of family members in the family we assigned and the
corresponding number of families. The figures below should be used with caution:
they should not be interpreted as the entire family membership since we consider
only family firm sample to construct family membership. The majority of family
firms are composed of only one person, 67% of sample families. Families with
two to seven family members constitute the majority of the remaining sample
while families with more than seven members constitute just few cases.
Table 2: Conversion from Individual Owner into Family
Once family membership is defined, we identify the largest family owner for each
firm (for detail see Appendix 2). Then we grouped the firms according to common
largest family owner. Table 3 presents the overview of the result. We define the
15 See the description in Appendix 2: Family group identification process.
Number of Family Members
Number of Families
% of Total Family
Number of Personal Owners
% of Total Owner
1 35,507 66.9% 35,507 43.9% 2 10,976 20.7% 21,952 27.2% 3 4,050 7.6% 12,150 15.0% 4 1,793 3.4% 7,172 8.9% 5 542 1.0% 2,710 3.4% 6 127 0.2% 762 0.9%
7 to 14 69 0.1% 548 0.7% Total 53,064 100,0% 80,801 100,0%
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firm which one family owns only one firm as Stand_alone. The rest of firm we
define as Group firm as opposed to Stand_alone. Among Group firm, we identify
Family group according to ‘family group selection criteria’, described in page 16.
For example if we observe Group firm where all the firms in the group have same
cash flow right owned by the largest family ,or minimum cash flow right in the
group is greater than 80%, we exclude them from the Family group sample. As a
result the sample is reduced from 26,821 firms in Group firm to 8,879 firms in
Family group. Among Family group, we group the maximum cash flow firm as
Max CF firm and minimum cash flow firm as Min CF firm. The observations for
Max CF firm and Mid CF firm are 2,821 firms and 2,778 firms respectively. Table
4 summaries the sub sample selection and corresponding sample size. For the test
we will use four sub samples: Stand_alone, family group, Max CF, and Min CF.
Table 3: Family Group #of Family
Member 1 2 3 4 5 6 7 to 14 Total % of
Total # of Firm
Owned 1
Stand_alone 30,633 8,653 2,499 1,022 243 46 18 43,114 62% 2 7,062 3,206 1,804 844 316 60 24 13,316 19% 3 2,367 1,290 1,023 519 195 60 42 5,496 8% 4 1,048 564 576 332 104 60 28 2,712 4% 5 555 300 350 210 60 30 15 1,520 2% 6 390 198 180 138 60 24 30 1,020 1%
Over 7 1,210 474 480 204 272 53 64 2,757 4% Group Firm 12,632 6,032 4,413 2,247 1,007 287 203 26,821 38%
Total 43,265 14,685 6,912 3,269 1,250 333 221 69,935 100%
Table 4: Sub sample description
Sample Name Description Observation Filtered population Applied the filters described in page 31 111 539 1. Family Firm Largest family ultimate sum ownership >50% 69 935 2. Stand Alone 1+ Family owns only one firm. 8 879 3. Group Firm 1+ Family owns several firms. 26 821 4. Family Group 3+ Apply Family group selection criteria (p.21) 8 879 5. Max CF 4+ Maximum cash flow firm in the family group 2 821 6. Min CF 4+ Minimum cash flow firm in the family group 2 778
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4.2 16Variable description
4.2.1 Dependent variable
There are many different measure of performance. In our research most of firms
are un-listed firms, which indicate that the commonly used market based
performance measures such as Tobin’s Q ratio and ROE cannot be used.
Consequently we will use accounting based measure: return on assets (ROA) as
our measure of performance. ROA is extracted from CCGR database and defined
as earning before interest after tax (EBI) divided by total asset.
4.2.2 Independent variable
To measure industry shock, we used median ROA of the industry to which each
firms belong based on NAIC code. The industry median was constructed in family
firm sample as a whole because this is the reference performance of each industry
in the economy. This variable is referred to as ‘Own_Shock’. To measure group
shock, we measured the average of ‘Own_Shock’ of firms in the group except
itself. For example, consider the family group described in Table 5. Since each
firm has its industry code, ‘Own_Shock’ can be easily indentified. Once
‘Own_Shock’ is identified for all the firms, we then compute the average of
‘Own_Shock’ for firm B to firm D as ‘Group_Shock’ for firm A ,and firm A to
firm C as ‘Group_Shock’ for firm D. It is worth nothing that we exclude its own
shock from computing group shock because group shock and own shock is the
distinct independent variables in the regression test.
Table 5: Industry shock construction
Firm Name
Family Share
Industry (Example)
Own shock Group shock
A 55% Service Median ROA of Service Industry
Average of Own_Shock of firm B ,C and D
B 60% Transport Median ROA of Transport Industry
Average of Own_Shock of firm A ,C and D
C 75% Manufacturing Median ROA of Manufacturing Industry
Average of Own_Shock of firm A, B and D
D 90% Construction Median ROA of Construction Industry
Average of Own_Shock of firm A, B and C
16 See the Appendix 3 for details on how each variable is constructed from the data source.
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For hypothesis B 1), CF wedge (‘CF’) is defined as difference between shares in
respective firm’s largest family share and family share of maximum CF firm in
the same group.
We will measure hypothesis B 2) insider positions as two dummy variable ‘CEO’
and ‘Board’. ‘CEO’ variable takes the value of 1 if controlling family has CEO
and 0 otherwise. Likewise ‘Board’ variable takes the value of 1 if controlling
family has board seat.
In our study, the second largest shareholder is defined as the personal owner who
is not a member of the largest family in a given firm and has the highest share
among the non family owners. For hypothesis B 3) we simply measure the
ultimate share of the second largest shareholder in a given firm (‘Second’). While
the other variables were readily available from initial source, this variable is found
by matching ownership data and largest family. For example if the firm has five
personal owners and three of them are the members of controlling family, we then
know that rest two owners are outside of controlling family. If among two outside
owners one has 10% share and 5% share, the former is defined as the second
largest shareholder and his or her share as Second variable.
4.2.3 Control variables
To control for other firm characteristics that can influence the dependent variable
the following control variables is introduced in our regression: firm size (‘Size’),
firm age (‘Age’), leverage (‘Leverage’), firm growth (‘Growth’).
There is a general consensus that firm size affects firm performance. Large firms
have a tendency to be the most successful businesses because expansion (increase
in size) is often a result of profitability. Two proxies are used as indicators of firm
size: total asset and operating revenue. To measure we take log value of total
assets (‘Size (asset)’) and operating revenue (‘Size (sale)’).
The age of a firm is expected to influence the firm’s performance in two ways.
Older firms are expected to have higher ROA because older firms normally have
more sales and hence higher profits. Age might also be linked to performance due
to a self-selection bias: older firms might be presents simply because they are
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successful (Schulze et al. 2001) . Older firms also generally have depreciated their
assets more than younger firms leading to higher ROA. To control this effect on
ROA, we measure the age of a firm as log of age (‘Age’).
Leverage can both have a positive and negative impact on the firm’s performance.
Jensen (1986) argues that debt will reduce the firms’ potential agency costs by
lowering the available free cash flow in the firm. Leverage can also make
managers more efficient since they must meet debt repayments (Stiglitz 1985).
McConnell and Servaes (1995) argue that the same debt repayments hinder the
managers to invest in profitable investments because of constraints (e.g.,
covenants) associated with the debt. Leverage is expected to correlate negatively
with ROA since more profitable firms can finance more from earnings. We define
leverage as total debt divided by total asset (‘Leverage’).
Firm value may be related to the firm’s investment opportunities. High growth
firms tend to be more profitable than low growth firms (Maury 2006; Cooper,
Gulen, and Schill 2008). We use the proxies for growth as sales growth
( ��������� ���������� : ‘g_Sale’).
4.3 Descriptive statistics
Appendix 4 presents summary statistics of key corporate finance variables for
each sub group (Panel A: Family firm, Panel B: stand-alone firm, Panel C: Family
Group, Panel D: Min CF firm, and Panel E: Max CF firm). Appendix 5 reports
statistics for the corporate governance characteristics. Table 6 to 10 presents
histograms of median values of key variable in order to make the comparison
between sub groups easier.
Table 6 shows that family group tends to be larger than stand alone. A median
family group recorded total asset of 3,6 million NOK in 2003 and sales of 3,0
million NOK. In contrast median stand alone firms recorded total asset of 1,2
million NOK and sales of 1,8 million NOK. On the other hand we did not observe
noticeable size difference in term asset among sub samples of the family group. In
terms of sales the median Max CF firm recorded almost half of sales of the
median Min CF firm.
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Table 6: Corporate Finance Descriptive Statistics (1)
*A : Total Asset, S: Sales, g_S: growth of sales from 2002 to 2003, D : Total debt and D to A : Leverage ratio
defined as total debt to total asset (for description of variables, see Appendix 3 and for full statistics, see
Appendix 4) *The value shown is million NOK except g_S and D to A as of 2003 * Missing column
represents value of zero.
Table 7: Corporate Finance Descriptive Statistics (2)
Table 7 presents that the median age and ROA. The median family group firm is
one year older than stand alone, while median Max CF firm is oldest among them
all. We will control for these difference with control variables described
previously. Descriptive statistics for ROA will be further discussed in association
with industry sector descriptive statistics.
0,000,501,001,502,002,503,003,504,00
A S g_S D D to A
Family StandAloneGroup
0,00,51,01,52,02,53,03,54,0
A S g_S D D to A
GroupMin CFMax CF
0,00 2,00 4,00 6,00 8,00 10,00 12,00
ROA
Age Max CFMin CFGroupStandAloneFamily
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Table 8: Corporate Governance Descriptive Statistics (1)
* Missing column represents value of zero. * Second largest share has median value of zero for all the sub
samples except Min CF because sum of largest family ultimate share has median value close to 100 for those.
* CF wedge applies only for family group.
As shown in table 8, the median stand alone firms recorded sum of largest family
ultimate share of 100 as opposed to 90 of the median family group. Consistent
with this the second largest share is lower and CEO holding is higher for the
median stand alone firm compared to the median family group. Among the family
group firms, the difference is driven by the method how we classify Min CF and
Max CF.
Table 9: Corporate Governance Descriptive Statistics (2)
As illustrated in Table 9 the median number of family members is one in all five
groups. This is with the observation in table 2 and 3 suggesting that majority of
family group consists of one person. Median family group recorded three owners
compared to two owners in median stand alone firms. We expect that this
tendency is somewhat related to the size difference of two groups.
0,0020,0040,0060,0080,00
100,00120,00
Sum of Largest family
ultimate share
Sum of Largest
family direct share
Second Largest share
CEO Holding CF WEDGE
FamilyStand AloneGroupMin CFMax CF
0,000,501,001,502,002,503,003,50
# Family Owner # Family chair # Owner Board Size
FamilyStand AloneGroupMin CFMax CF
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Table 10: Corporate Governance Descriptive Statistics (3)
*The histogram presents the percentage of firms in which controlling family has 1) CEO, 2) Chair, and 3) CEO and Chair both.
Table 10 presents that it is quite common for family to have CEO or board seat.
The firms in which controlling family has both CEO and board seat are majority:
76%, 49%, 41%, and 65% for stand alone, family group, Min CF, and Max CF
respectively. In contrast the firms with neither family CEO nor family chair are
3%, 12%, 14%, and 4% in same order (see Appendix 5). We expect that group
differences reflect higher controlling family ownership in stand alone and Max CF
firms (median value 100%) compared to family group (90%) and Min CF firm
(65%).
Table 11: Industry Descriptive statistics
• Note: The graph shows median of ROA and asset of three groups. The line chart (primary axis)
represents median ROA of the group for corresponding industry sector in horizontal axis. The
histogram (second axis) represents median asset in million NOK. Industry sectors are 1: Agriculture,
forestry, fishing and mining, 2: Manufacturing and chemical products, 3: Energy, 4: Construction, 5:
Service, 7: Trade, 8: Transport and Total for total sample. We classified the industry sector as
reference of (Berzins, Bøhren, and Rydland 2008)For detail industry analysis based NAIC code, see
appendix.
0102030405060708090
100
Family CEO Family Chair CEO and Chair
FamilyStand AloneGroupMin CFMax CF
0,01,02,03,04,05,06,07,08,09,010,0
0,02,04,06,08,0
10,012,0
Asset Family Firm
Asset Stand-Alone
Asset Group
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In addition to general descriptive statistics for overall industry, we further present
the descriptive statistics by industry. The purpose is first to get snapshot on how
each group performance is difference from industry norm and second to see
whether any group is particularly concentrated on certain industry. Appendix 6 to
9 presents industry distribution of each sub group, ROA by industry, asset by
industry and sales by industry respectively.
Table 11 and table 12 present the summary from those appendixes. Most
interestingly median ROA of family group is lower than those of stand alone
firms in all industry sectors. In previous section simple description on corporate
finance variables showed that median family group is larger and older than
median stand alone firms. The description on control variable predicts that larger
and older firm tends to have higher performance than smaller and younger firm.
Considering these observations and theoretical predictions, lower median ROA of
family group signals that our hypothesis might fit to the data.
Table 12 suggests that there is no noticeable difference in industry distribution
except industry sector 4: construction and 5: service. Stand alone firms are
relatively more concentrated in the construction sector and less so in the service
sector in comparison to family group.
Table 12: Industry distribution of sample
1 2 3 4 5 7 8 Multi Family 2,12 % 7,55 % 0,13 % 9,69 % 48,34 % 22,85 % 4,50 % 4,16 % StandAlone 2,15 % 7,62 % 0,13 % 11,88 % 44,78 % 23,43 % 4,77 % 4,68 % Group 2,31 % 7,31 % 0,23 % 5,67 % 54,96 % 20,79 % 4,72 % 3,21 % Min CF 2,48 % 8,32 % 0,25 % 7,20 % 51,04 % 21,53 % 4,18 % 4,36 % Max CF 1,95 % 5,42 % 0,25 % 5,28 % 56,86 % 19,74 % 3,90 % 5,81 %
• Note: The table shows the percentage of each industry to total observation in respect group sample.
The industry sector is same as Figure 3 and Multi represents multi industry. Max CF is the
maximum CF firm in family group while Min CF is the minimum CF firm in family group
For the regression analysis, we excluded multi industry firms from the sample
because we cannot compute the own shock and group shock variable without
knowing weight on each industry of multi industry firms. Table 12 shows that
multi industry firms are not populated in particular sub group: overall 3,2% to 5,8%
of sample size of each group. By excluding multi industry and unspecified
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industry firms, the sample reduced from 8,879 firms to 8,522 firms for stand alone
and from 2,778 (2,821) firm to 2,639(2,635) firms for Min CF (Max CF) group.
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5 Result and analysis
5.1 Regression result: Does tunneling exist?
First we test the first prediction of tunnelling: whether group firms would be less
sensitive to their own industry shocks than Stand_alone. Column (1) in table 13
displays our basic result. The general sensitivity of firms to industry performance
is, as expected, positive and significant. More importantly the interaction term
which captures the differential sensitivity of group firms is negative as tunnelling
predicts. The result can be interpreted as follows. If industry shock (measured as
industry median which each firm belongs to) increases by one unit, it leads to
about 1.19 unit increase in ROA of stand alone firms. For a group firm, the same
degree of shock leads to 0.67 unit smaller increase in ROA, or only 0.52 unit
sensitivity to one unit industry shock. This suggests that some part of profitability
in a group firm is lost. In short, the data supports the first prediction.
Table 13: Regression result –Testing for Tunneling (1) (2) (3) Own_Shock 1,191 (,450)*** ,437 (,154)*** ,664 (,139)*** Group_Shock - - -,365 (,169)*** Group* Own_Shock -,669(,073)*** - - H_CF* Own_Shock - ,532 (,132)*** - L_CF* Own_Shock - ,019 (,130) - H_CF* Group_Shock - - ,479 (,149)*** L_CF* Group_Shock - - -,040 (,148) Size (Asset) 3,215 (1,738)*** 1,715 (,389)*** 1,734 (,391)*** Size( Sale) 8,417 (1,481)*** 1,417 (,334)*** 1,374 (,334)*** Age 4,139( 2,125)** 3,459 (,560)*** 3,516 (,560)*** Leverage 5,470 (,044)*** -2,349 (,086)*** -2,350 (,086)*** Group* Leverage(a) -8,755 (,190)*** - - g_Sale ,001 (,003) ,000 (,000) ,000 (,000) Constant -171,889 (20,774)*** -48,506 (4,934)*** -46,976 (4,961)*** F 1997,403 *** 131,861*** 116,742*** Adjusted R2 ,244 ,110 ,109 # Observation 49,382 8,522 8,522
1. Own_Shock is industry median of the industry each firm belongs to. Group_Shock is average of Own_Shock of the firms in the same family group except itself. Group is binary variable whose value is 1 for family group firms and 0 for stand alone firms. H_CF (L_CF) is binary variable whose value is 1 for maximum (minimum) cash flow position in family group and 0 for otherwise. Size and Age are log value of observation as of 2003. g_Sale is sales growth measured as ratio of sale in 2003 to sale in 2002. Leverage is total debt to total asset.
2. Standard errors are in parentheses. *** indicates that coefficients estimates are significant at the 1% level according to the student test, ** at 5%, and * at 10% level.
3. (a) Add the variable to control the different coefficient sign for two groups.
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Regarding control variables: Size and Age, the regression result is consistent with
our prediction that larger and older firms tend to perform better on average.
Leverage variable suggests more interesting result: two groups of firms show
opposite coefficient signs. We have already discussed the conflicting effect of
leverage on firm’s performance and inconclusive net effect. Here the result
suggests that for stand alone firm, positive leverage effect prevails while negative
leverage effect is dominant in family group. In our test, growth measure does not
provide significant effect on ROA. These tendencies are consistent throughout the
rest of the tests.
The second prediction provides a more stringent test: within group firms,
Maximum CF firm should show greater sensitivity than average group firm.
Column (2) in table 5 shows that Maximum CF firm is more sensitive to its own
shock than group firm on average, indicated as positive and significant coefficient
in interaction term (H_CF*Group_Shock). The result implies that one unit
increase in industry shock leads to about 0,43 unit increases in ROA for a group
firm on average. For Maximum CF firm, it leads to 0,53 unit greater increase, or
about 0,96 sensitivity to one unit industry shock in total. Combining the finding in
the first test, the result suggests that Maximum CF firm is only slightly less
sensitive to industry shock than stand alone firm (1,19 sensitivity). The coefficient
on L_CF interaction term indicates that Minimum CF position is indifferent from
other position in the group firm when it comes to its own sensitivity. The result
also suggests that for the rest of the group firms one unit increases in own industry
shock leads 0,4 unit increase in ROA, which is slightly less than group as a whole
(0,67) due to the exclusion of Maximum CF firm. Therefore data supports the
second prediction as well.
Column (3) shows the result of third prediction: Maximum CF firm would be
positively sensitive to group shock. The negative coefficient on group shock
indicates that group firm on average is negatively related to each other’s shock.
More importantly interaction term and group shock coefficient term indicates that
Maximum CF firm is positively associated with group shock: on average 0,1 unit
increase as a response of one unit industry shock in other firm of the group as a
whole. Minimum CF firm shows indifferent sensitivity to group shock, which
confirm the tunnelling flow direction from down to the top of CF hierarchy.
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5.2 Regression Result: Determinant of Tunneling
The results of first part of the test generally support the prediction of tunnelling.
Base on the empirical support on the existence of tunneling, we move on to the
second part of the test for finding what affects the degree of tunnelling. From
Chapter 4, our hypotheses suggest three factors affecting on the extent of
tunnelling: CF wedge, second largest owner, and insider position of largest family.
Table 14 show both univariate and multivariate test for three independent
variables: column (1) CF wedge, column (2) second largest owner, column (3) / (4)
insider position measured as family CEO / family board seat. The last column (5)
shows the multivariate regression result for three independent variables altogether.
Testing for CF wedge and second largest owner supports our prediction. The
negative interaction term for CF wedge suggests that as more CF right in the
group firm deviates from Maximum CF right in the group, more tunnelling is
prevailed. We can infer that one percent CF wedge change causes 0,005 unit
decreases in its sensitivity to own industry shock. Considering average CF wedge
is about 12% (see Appendix 5: Panel C.), CF wedge on average drives the
sensitivity 0,06unit down for one unit industry shock.
The result for testing second largest owner variable is also consistent with our
hypothesis that as the share of the shareholder outside of largest family increases,
tunneling is less prevailed. The positive coefficient on the interaction term
supports the tunneling prediction: one percent increase in outside shareholder’s
share causes 0,01unit increase in its sensitivity to one unit own industry shock.
Considering average second largest share is about 0,6% in group firm (see
Appendix 5: Panel C.), second largest share on average contributes the sensitivity
increase by 0,11unit for one unit industry shock.
On the other hand insider position does not support our prediction that insider
position increases ability of large family and as a result more tunneling would be
expected when large family has insider position. The result shows that Family
CEO contributes to reduce tunneling while Family board member plays no
significant role. The result might be because the regulations restricting insiders in
conducting related party transactions in Norway is effective. Alternatively it might
be that controlling families have already sufficient control in terms of voting right
and thus whether to have insider position does not particularly make difference.
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The results in univariate test were all consistent with multivariate test as well. One
noticeable finding is that CF wedge gains more significant and magnitude of the
effect is two times larger than univariate case. Second largest share also shows
slight increase in magnitude.
Table 14: Regression result - Determinant of Tunneling
Table 15 : Regression result comparison to Stand Alone *CF is cash flow wedge between each firm and maximum cash flow firm in the same family group. Second is the share of second largest shareholder. CEO (Board) is binary variable whose value is 1 when family has CEO (Board members) and 0 for otherwise. *Other variables / description are same as in table 10.
To confirm the finding we did similar regression test for Stand alone firm as
shown in Table 15 except for CF wedge. All the test results show no significant
result in sample of stand alone firms. This confirms that our prediction captures
unique variances in group firms.
(1) CF (2) Second (3) CEO (4)Board (5) Multivariate Own_Shock ,675 (,141)*** ,474 (,138)*** ,608(,145)*** ,612(,157)*** ,672 (,178)*** CF *Own_Shock -,005(,003)* - - - -,010 (,004)*** Second* Own_Shock - ,011(,003)** * - - ,016 (,004)*** CEO*Own_Shock - - 5,451(1,049)*** - 5,605 (,1,072)*** Board *Own_Shock - - - -,009(,063)- -,083 (,065) Size (Asset) 1,648(,385)*** 1,881(,387)*** 1,827(,385)*** 1,713(,384)*** 2,005 (,390)*** Size( Sale) 1,309(,334)*** 1,118(,333)*** 1,345(,333)*** 1,234(,331)*** 1,297 (,336)*** Age 3,644(,560)*** 3,849(,558)*** 3,526(,562)*** 3,738(,559)*** 3,558 (,564)*** Leverage -2,355(,086)*** -2,348 (,086)*** -2,349(,086)*** -2,355(,086)*** -2,338 (,086) Growth ,000(,000) ,000(,000) ,012 ,000(,000) ,000(,000) ,000 (,000) Constant -46,33(4,883)*** -47,14(4,889)*** -52,36(5,079)*** -46,21(4,888) -54,46 (5,101)*** F 147,830 *** 149,101 *** 150,670 *** 147,435*** 107,864 *** Adjusted R2 ,108 ,109 ,110 ,108 ,112 # Observation 8,522 8,522 8,522 8,522 8,522
(2)Second (3) CEO (4) Board Own_Shock 1,154 (,539)*** 1,125(,708)*** 1,204 (,521)***,010 CF *Own_Shock - - - Second* Own_Shock ,008 (,017) - - CEO*Own_Shock - ,116(,567) - Board *Own_Shock - - ,295 (,781) Size (Asset) 3,115(2,204) 3,143 (2,207) 3,139 (2,204) Size( Sale) 10,716 (1,844)*** 10,710(1,850)*** 10,771 (1,844)*** Age 3,909(,2,533)* 3,849 (2,529)* 3,815 (2,530)* Leverage 5,472(,047)*** 5,472(,047)*** 5,472 (,047)*** Growth ,008(,017) ,004 (,008) 004 (008) Constant -202,016(24,598)*** -202,439 (24,582)*** -203,140 (24,609)*** F 1,913,802*** 1,913,763*** 1,913,782 Adjusted R2 ,247 ,247 ,247 # Observation 40,860 40,860 40,860
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To summarize, the results gives support for that a large cash flow wedge makes
tunneling more attractive (incentive) and that less contesting by other shareholders
makes tunneling more prominent (discretion), but also that informal control
through insider positions (ability) seems restricted.
5.3 Robustness test
Although the findings in previous section support the predictions of the tunneling
hypothesis, other possible explanations need to be considered. We believe that
alternative explanations that ought to discuss: the dividend earning from the
shares held in each other can be prominent alternative explanation. Hence we did
first part of regression test again considering inter-corporate investment between
group firms.
One might worry that the results merely arise from the possible inter-corporate
investment between the pair of companies resulting in owning shares in each other
(Bertrand, Mehta, and Mullainathan 2002). If this is the case, the sensitivity of
one firm in the pair to the other’s performance would then mechanically arise
through the dividend – income earnings from the shares held. To take into account
this possibility, we first check the group composition which CCGR data provides
(See Appendix 3 for variable description.). Table 16 shows the group identity of
family group sample. It is expected that the cases where maximum CF firm is
parent of the group are what we have to concern. This is because the dividend
payment flow is same direction as tunneling from low cash flow firm ultimately to
maximum CF firm. Hence we found the family group where maximum CF frim is
parent and removed all the family group member firms from the sample in order
to re-test. As table 16 presents, the family group in which Max CF firm is parent
in corporate group is 548 cases. By this process, the sample is reduced to 6,837
firms from initial 8,522 firms.
Table 16 : Inter corporate investment Min CF Max CF Mid CF Group Total Associated 215 35 53 303 Independent 1 461 1 668 822 3 951 JC 12 5 17 Parent 163 548 565 1 276 Subsidiary 788 384 1 803 2 975 Total 2 639 2 635 3 248 8 522
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Table 17 shows the results of regression test for ‘Does tunneling exist?’ with the
reduced sample. The result is robust after applying new sample. The sign and
magnitude of coefficient remains similar to those in base case for all three
regression test.
Table 17 : Regression result Robustness test
(1) (2) (3) Own_Shock 1,200 (,463)*** ,439 (,179)*** ,640 (,163)*** Group_Shock - - -,266 (,199) Group* Own_Shock -,671 (,081)*** - - H_CF* Own_Shock - ,501 (,156)*** - L_CF* Own_Shock - ,079 (,151) - H_CF* Group_Shock - - ,417 (,177)*** L_CF* Group_Shock - - -,026 (,175) Size (Asset) 3,317 (1,818)*** 1,406 (,388)*** 1,376 (,388)*** Size( Sale) 8,746 (1,544)*** 1,875 (,455)*** 1,843 (,458)*** Age 4,160 (2,199)** 3,554 (,648)*** 3,601 (,648)*** Leverage 5,471 (,045)*** -2,441 (,092)*** -2,442 (,092)*** Group* Leverage(a) -8,763 (,194)*** - - g_Sale ,001 (,003) ,000 (,000) ,000 (,000) Constant -177,925 (20,774)*** -50,953(5,751)*** -46,419 (5,775)*** F 1930,196 *** 118,618 *** 104,871*** Adjusted R2 ,244 ,121 ,121 # Observation 47,697 6,837 6,837
1. Own_Shock is industry median of the industry each firm belongs to. Group_Shock is average of Own_Shock of the firms in the same family group except itself. Group is binary variable whose value is 1 for family group firms and 0 for stand alone firms. H_CF (L_CF) is binary variable whose value is 1 for maximum (minimum) cash flow position in family group and 0 for otherwise. Size and Age are log value of observation as of 2003. g_Sale is sales growth measured as ratio of sale in 2003 to sale in 2002. Leverage is total debt to total asset.
2. Standard errors are in parentheses. *** indicates that coefficients estimates are significant at the 1% level according to the student test, ** at 5%, and * at 10% level.
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6 Conclusion
Our research is motivated by stream of corporate government research, pursuing
to expand the knowledge on how corporate governance mechanism affects on
firms’ profitability. In this paper we attempt to understand how controlling owners
expropriates minority owners in the Norwegian economy where private firms
controlled by family are dominant form (Berzins, Bøhren, and Rydland 2008). In
particular we investigated a specific type of expropriation known as ‘Tunneling’:
controlling families’ transferring resources from companies where they have few
cash flow rights to ones where they have more cash flow rights. To explore the
research topic, we investigated two research questions 1) to what degree tunneling
prevails among the family firms, and 2) what are the main determinants of this
phenomenon? We used general empirical technique for measuring tunneling
developed by Bertrand, Mehta and Mullainathan (2002) . With data provided by
CCGR data base, we did a cross sectional analysis for 2003.
Regarding the first question, the results suggest a significant tunneling between
firms controlled by common family owner. Data showed that the family groups
are on average about less sensitive to industry shock than stand alone. On the
other hand, maximum cash flow right firms show on average higher sensitivity
than the average firms in the same family groups. This suggests that, as tunneling
predicts, some part of profitability in a family group is lost, and the lost
profitability is more prevalent in the lower cash flow right firms in the group. The
result also suggests that maximum cash flow right firms on average positively
respond to the group shock as opposed to negative response for the rest of firms in
the group. This confirms that the resources are transferred from the low cash flow
right firms to the high cash flow firms.
Regarding the second research question, the results suggest that the more
tunneling prevails as the greater the cash flow rights between two firms diverge
and the fewer shares the largest second shareholder holds. We however found
little significance for insider positions in terms of family CEO and family chair.
The results gives support for that a large cash flow wedge makes tunneling more
attractive (incentive) and that less contesting by other shareholders makes
tunneling more prominent (discretion), but also that informal control through
insider positions (ability) seems restricted.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
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In our knowledge, our findings are with four major weaknesses due to data
limitation and limited scope of the research. First we indirectly identify the family
groups. Consequently we might have underestimated the real size of the family
groups. Second we are considering tunneling through connected transactions
between companies as legal entities and not transactions through between a
company and an individual. This creates a bias in our findings because tunneling
also can occur between a company and a sole proprietorship. Due to lack of data
these transactions remain undetected and will lead to underestimation in our
results. Lastly validity of our finding is highly dependent on how precisely a
firm’s industry is measured. If we are mismeasuring the firm’s industry, this
mismeasurment would lead firm to appear less sensitive to their industry
shock(Bertrand, Mehta, and Mullainathan 2002), particularly problematic for
family group firms. Due to limited resources and data, we could not conduct the
further investigation on this matter. Consequently there is possibility of this
alternative explanation for our findings. Our findings also gives indication that
tunneling occur, but not how tunneling occur. In chapter 2.4 different forms of
tunneling were presented. Since we were unable to directly observe how tunneling
occur in “real life”, large parts of how tunneling occur remains a “dark spot”. We
leave these unsolved questions for the future researchers to investigate further.
Tunneling (GRA 1900 Master Thesis) 01.09.2010
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APPENDIX
Appendix 1: Tunneling Example –Aker Solution Case (Bøhren 2009)
Tunneling (GRA 1900 Master Thesis) 01.09.2010
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Appendix 2 : Family group identification process The purpose of this process is first to group individual owners into family, secondly to find the largest ‘family’ owner for each firm and ultimately to find the family group linked by common controlling family owner. To achieve these goals we used the following methods: Step 1: Find the firms in which largest family number of owners (item 15307) is equal to number of personal owners (item 14205). For this type of firms, we are certain that all the personal owners reported are in the same family and at the same time, this family is the controlling family. Step 2: In the firms found in step 1, we assigned the randomly chosen family ID to the group of personal owners, for example 1, 2, 3 and so on. One thing to consider is that ‘largest family number of owners’ does not necessarily represent the complete family. For example consider the real family size is actually 3 (owner A, B, and C). If we observe two firms: one firm’s owner is A and B while the other firm’s owner is B and C, we double count owner B to two different family. To avoid it, we go though one more step: if we find two family IDs for one owner, change family ID of higher order number to lower Number as a whole. In the same example we assigned for example family ID ‘1’ to owner A and B and ‘2’ to owner B and C. Observing owner B has two family ID, we replaced family ID ‘2’ to ‘1’ in the list for all the owners who has family ID ‘2’. As a result we have preliminary list of the ownership ID matched to family ID and match those family ID as a controlling family to each firm. Step 3: Since we already grouped all the personal owners to family and found the largest family for the type of firms in step 1, we now consider the rest of firms whose largest number of owners are not same as number of personal owners. The method we used in this case is to find the owners whose ultimate ownership in a given firm exceeds 100-family sum ultimate ownership. For this type of owners, we are certain that he or she is among the members of controlling family. If there are several personal owners of this type found in a given firm, we can expect that they are in the same family. For example we found that in step 2 owners A, B, and C is in the same family with ID ‘1’. Consider in step 3, we found in a given firm owner C and other owner D which meet the criteria described above. Then we know that owner D is also a member of family ‘1’ and thus assign family ID ‘1’ to owner D. As a result family ‘1’ has 4 members so far. If we do not find any related owners from step 1 and 2, we assigned new family ID. As a result we have updated and expanded the list of the personal ID matched to family ID and found the controlling family owner for the firms which has at least one owner whose ownership exceeds 100- family sum of ultimate ownership.
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Step 4: For the rest of firms (largest family number of owners ≠ number of personal owner, and no such a owners found described in step 3), we first see that any owners observed in this type of firms are in the list we made from step 1 to step 3. If it is so, we manually found the match between family and owner. For example, consider in one of these firms we found owner D with ownership 20% and family sum of ultimate ownership is reported as 60% while the reported largest family number of owners is 3. Then if we observe 2 more 20% owners (let them be owner E and F), we can expect that owner E and F are same family as owner D. As a result family ‘1’ has 6 members. We also found the controlling family for the corresponding firms. Step 5: We excluded the rest of firms (1,897 firms) from the sample. Appendix 3 : Definition of variable (Berzins, Bøhren, and Rydland 2008)
Variables Abbreviation CCGR item number Operating Earnings after tax NOE 35 Operating Result Operating Revenue R 11 Sum operating Income Total Asset A 63 Fixed Asset + 78 Current Asset Total Debt D 91 Provision + 98 Other long term liabilities + 109 Current liabilities Working Capital WC 78 Current asset -109 Current liabilities Return on Asset ROA 127 ROA Dividends Dividends 41 Dividends Investment I 75 Total Investment Employees Em 13405 Number of Employees Sales S 11 Sum operating Income + 24 Other interest received + 25 Other
financial income Largest family sum ultimate ownership
15302 Largest family sum ultimate ownership
Largest family largest direct holding
15303 Largest family sum ultimate ownership
Largest family has CEO CEO 15304 : 1 for yes, 0 for no Largest family has Chair Board 15305 : 1 for yes, 0 for no Leverage Total Debt / Total Asset Growth of Sales g_Sale S (2003)/S (2002) Growth of Assets g_Asset A (2003)/A (2002) Growth of NOE g_NOE NOE (2003)/NOE (2002) Current Asset CA 78 Current asset Current Debt CD 109 Current liabilities Age Age 13420 Company Age Inter corporate- Investment Group
Group ID 14502
Parent : Inter corporate- Investment Group
Is Parent 14502
Subsidiary : Inter corporate- Investment Group (>50% share)
Is Subsidiary 14502
JV : Inter corporate-Investment Group (Joint Investment)
Is Joint Control
14502
Associated : Inter corporate- Investment Group (>30%)
Is Associated 14502
Independent: Inter corporate- Investment Group
Is Independent
14502
Number of Owners 202 Number of Owners
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Appendix 4: Corporate finance Descriptive statistics Panel A: Family Firm Total
N Mean Median Mode Std. Deviation Skewness Kurtosis Percentiles
Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Size Total Asset (A) 69 935 8,40 1,75 0,25 63,87 40,89 2 345,39 0,04 0,15 0,26 0,65 1,75 4,67 12,44 101,63 5 365,41
Sales (S) 69 935 8,12 2,04 0,03 50,02 103,23 16 868,38 0,02 0,09 0,21 0,67 2,04 6,03 16,59 91,09 9 165,75 Employees (Em.) 45 964 7,49 3,00 1,00 23,15 38,97 3 147,06 1,00 1,00 1,00 2,00 3,00 7,00 15,00 64,00 2 463,00
Grow
th Growth of Asset 69 935 1,91 0,00 0,00 98,75 183,44 38 379,24 0,00 0,00 0,00 0,00 0,00 1,00 1,00 8,00 22 133,00
Growth of Sale 69 935 14,89 1,00 0,00 709,28 113,36 15 634,07 0,00 0,00 0,00 0,00 1,00 1,00 1,00 31,00 118 794,00 Growth of NOE 69 935 0,35 0,00 0,00 53,92 4,59 3 325,36 -34,00 -6,00 -2,00 0,00 0,00 1,00 4,00 35,00 4 821,00
Asse
t Str
uctu
re
Investment 69 935 0,33 0,00 0,00 9,81 104,92 14 350,41 0,00 0,00 0,00 0,00 0,00 0,00 0,01 3,66 1 624,31 Working Capital(WC) 69 935 0,57 0,08 0,10 17,29 79,16 12 219,51 -6,97 -1,52 -0,71 -0,15 0,08 0,38 1,50 15,20 2 893,21
Asset to Em. 69 935 1,26 0,24 0,00 11,39 43,28 2 669,86 0,00 0,00 0,00 0,00 0,24 0,63 1,44 18,20 971,24 Sale to Em. 69 935 1,01 0,53 0,00 4,86 138,10 27 364,16 0,00 0,00 0,00 0,00 0,53 1,17 2,23 7,94 1 013,66 Current asset to A 69 935 0,61 0,00 0,00 1,66 3,37 11,35 0,00 0,00 0,00 0,00 0,00 0,00 1,00 8,00 9,00 WC to A 69 935 -0,16 0,00 0,00 18,74 -125,31 20 287,10 -9,00 -6,00 -3,00 0,00 0,00 0,00 4,00 9,00 9,00
Capit
al
Struc
ture
Debt (D) 69 935 5,98 1,44 0,00 41,96 49,43 3 700,31 0,01 0,09 0,19 0,53 1,44 3,78 9,62 70,78 4 265,00 Current D to D 69 935 0,72 0,00 0,00 1,45 3,61 14,87 0,00 0,00 0,00 0,00 0,00 1,00 1,00 8,00 9,00 Debt to Asset 69 935 1,00 0,00 0,00 40,36 148,17 27 474,12 0,00 0,00 0,00 0,00 0,00 0,00 1,00 8,00 8 319,00
Pay- out Dividend 69 935 -0,51 0,00 0,00 6,07 -70,84 7 236,89 -6,51 -1,56 -0,80 -0,20 0,00 0,00 0,00 0,00 2,00
DividendPayout 69 935 -0,48 0,00 0,00 10,76 -50,25 5 555,60 -9,00 -2,00 -1,00 0,00 0,00 0,00 0,00 1,00 583,00
Profi
tabili
ty Net Operating Earning (NOE) 69 935 0,47 0,07 0,00 6,91 59,49 6 338,49 -2,19 -0,49 -0,23 -0,03 0,07 0,32 0,93 7,38 953,55
ROA 69 935 10,46 9,00 7,00 556,57 85,37 9 116,63 -167,00
-41,00
-17,00 0,00 9,00 22,00 40,00 88,00 65 800,00
Age 69 935 11,52 8,00 5,00 11,93 3,23 21,09 0,00 1,00 2,00 4,00 8,00 15,00 23,00 67,00 332,00
• Note: Except for employee and ratios, all variables are in million NOK as of 2003.
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Panel B: Stand Alone
N Mean Median Mode Std. Deviation Skewness Kurtosis Percentiles
Valid p1 p5 p10 p25 p50 p75 p90 p99 p100 Siz
e Total Asset (A) 43 114 8,40 1,22 0,25 11,42 33,11 1 880,78 0,04 0,13 0,22 0,50 1,22 2,92 6,45 31,56 872,50 Sales (S) 43 114 5,01 1,82 0,03 12,84 17,81 640,65 0,02 0,09 0,20 0,66 1,82 4,70 11,40 48,35 669,65 Employees (Em.) 30 761 5,08 3,00 1,00 10,14 30,54 1 937,65 1,00 1,00 1,00 1,00 3,00 6,00 11,00 35,00 830,00
Grow
th Growth of Asset 43 114 1,18 0,00 0,00 28,36 97,18 11 107,78 0,00 0,00 0,00 0,00 0,00 1,00 1,00 6,00 3 757,00
Growth of Sale 43 114 6,64 1,00 0,00 280,65 114,76 16 339,63 0,00 0,00 0,00 0,00 1,00 1,00 1,00 19,00 44 788,00 Growth of NOE 43 114 0,35 0,00 0,00 31,84 -28,95 4 168,13 -30,00 -6,00 -2,00 0,00 0,00 1,00 3,00 32,00 1 820,00
Asse
t Str
uctu
re
Investment 43 114 0,14 0,00 0,00 2,45 55,19 3 878,49 0,00 0,00 0,00 0,00 0,00 0,00 0,01 2,26 213,20 Working Capital(WC) 43 114 0,28 0,07 0,10 3,82 18,92 1 997,89 -2,84 -0,90 -0,47 -0,11 0,07 0,27 0,90 6,71 259,60
Asset to Em. 43 114 0,69 0,27 0,00 3,79 41,77 2 400,06 0,00 0,00 0,00 0,00 0,27 0,61 1,24 7,10 299,32 Sale to Em. 43 114 0,92 0,58 0,00 1,75 12,73 323,79 0,00 0,00 0,00 0,00 0,58 1,14 2,04 6,45 79,99 Current asset to A 43 114 0,46 0,00 0,00 1,41 4,13 17,97 0,00 0,00 0,00 0,00 0,00 0,00 1,00 8,00 9,00 WC to A 43 114 -0,13 0,00 0,00 21,41 -125,90 18 759,79 -9,00 -6,00 -3,00 0,00 0,00 0,00 4,00 9,00 9,00
Capit
al
Struc
ture
Debt (D) 43 114 2,45 1,01 0,00 6,73 20,24 773,90 0,01 0,07 0,15 0,40 1,01 2,41 5,20 23,34 396,84 Current D to D 43 114 0,63 0,00 0,00 1,25 4,17 21,65 0,00 0,00 0,00 0,00 0,00 1,00 1,00 8,00 9,00 Debt to Asset 43 114 1,03 0,00 0,00 47,51 141,26 22 951,26 0,00 0,00 0,00 0,00 0,00 0,00 1,00 8,00 8 319,00
Pay- out Dividend 43 114 -0,28 0,00 0,00 1,67 -59,23 5 998,92 -3,63 -1,10 -0,63 -0,20 0,00 0,00 0,00 0,00 0,53
DividendPayout 43 114 -0,45 0,00 0,00 9,71 -55,32 6 692,03 -8,00 -2,00 -1,00 0,00 0,00 0,00 0,00 1,00 409,00
Profi
tabili
ty Net Operating Earning (NOE) 43 114 0,22 0,06 0,00 1,69 45,37 3 673,47 -1,10 -0,34 -0,17 -0,03 0,06 0,25 0,64 3,22 171,12
ROA 43 114 11,39 10,00 6,00 524,76 88,72 10 109,47 -174,85
-45,00
-20,00 0,00 10,00 24,00 44,00 88,00 65 800,00
Age 43 114 10,94 8,00 5,00 11,15 2,93 13,78 0,00 1,00 1,00 4,00 8,00 15,00 22,00 62,00 161,00
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Panel C: Family Group
N Mean Median Mode Std.
Deviation Skewness Kurtosis Percentiles Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Size Total Asset (A) 8 879 24,83 3,58 0,25 149,45 19,71 512,05 0,07 0,23 0,46 1,24 3,58 10,56 33,83 405,43 5 365,41
Sales (S) 8 879 16,70 2,95 0,05 122,90 52,64 3 606,86 0,02 0,10 0,23 0,76 2,95 10,21 30,49 217,07 9 165,75 Employees (Em.) 5 105 13,64 5,00 1,00 48,95 28,16 1 263,09 1,00 1,00 1,00 2,00 5,00 12,00 25,00 147,94 2 463,00
Grow
th Growth of Asset 8 879 5,67 0,00 0,00 264,00 74,59 5 902,16 0,00 0,00 0,00 0,00 0,00 1,00 1,00 13,00 22 133,00
Growth of Sale 8 879 48,40 1,00 0,00 1 356,76 46,25 2 422,82 0,00 0,00 0,00 0,00 1,00 1,00 2,00 106,00 83 393,00 Growth of NOE 8 879 0,99 0,00 0,00 95,63 14,47 1 033,85 -46,00 -7,00 -3,00 0,00 0,00 1,00 4,00 53,20 4 584,00
Asse
t Str
uctu
re
Investment 8 879 0,82 0,00 0,00 16,20 49,56 3 105,61 0,00 0,00 0,00 0,00 0,00 0,00 0,02 9,49 1 151,14 Working Capital(WC) 8 879 1,46 0,10 0,10 44,06 36,49 2 259,15 -22,71 -3,68 -1,51 -0,27 0,10 0,80 3,46 45,14 2 893,21
Asset to Em. 8 879 3,19 0,20 0,00 26,86 21,93 608,33 0,00 0,00 0,00 0,00 0,20 0,75 2,40 55,86 971,24 Sale to Em. 8 879 1,35 0,40 0,00 6,29 26,53 965,60 0,00 0,00 0,00 0,00 0,40 1,29 2,73 14,14 291,54 Current asset to A 8 879 0,85 0,00 0,00 2,00 2,62 6,22 0,00 0,00 0,00 0,00 0,00 0,00 4,00 9,00 9,00 WC to A 8 879 -0,21 0,00 0,00 15,38 -50,31 2 810,64 -9,00 -6,00 -3,00 0,00 0,00 0,00 4,00 9,00 9,00
Capit
al
Struc
ture
Debt (D) 8 879 16,92 2,81 0,00 101,78 23,54 764,94 0,01 0,15 0,34 0,99 2,81 8,18 24,61 270,81 4 265,00 Current D to D 8 879 0,85 0,00 0,00 1,70 2,98 9,47 0,00 0,00 0,00 0,00 0,00 1,00 2,00 9,00 9,00 Debt to Asset 8 879 1,05 0,00 0,00 26,20 54,39 3 210,82 0,00 0,00 0,00 0,00 0,00 0,00 1,00 8,00 1 704,00
Pay- out Dividend 8 879 -1,23 0,00 0,00 14,89 -35,17 1 541,41 -16,00 -2,88 -1,20 -0,25 0,00 0,00 0,00 0,00 0,10
DividendPayout 8 879 -0,52 0,00 0,00 17,83 -35,92 2 647,23 -9,00 -2,00 -1,00 0,00 0,00 0,00 0,00 0,20 583,00
Profi
tabili
ty Net Operating Earning (NOE) 8 879 1,35 0,10 0,00 16,60 30,09 1 409,61 -6,60 -1,16 -0,45 -0,05 0,10 0,56 1,87 26,27 953,55
ROA 8 879 10,20 8,00 6,00 704,33 82,18 7 447,43 -154,40
-35,00
-14,00 0,00 8,00 18,00 35,00 83,00 63 500,00
Age 8 879 12,07 9,00 5,00 13,07 3,18 14,40 0,00 1,00 2,00 4,00 9,00 16,00 24,00 75,00 131,00
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Panel D: Tunneled Firm
N Mean Median Mode Std. Deviation Skewness Kurtosis Percentiles
Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Size Total Asset (A) 2 778 8,40 2,68 0,01 65,29 37,78 1 714,43 0,05 0,20 0,36 0,93 2,68 7,52 19,22 129,79 3 055,08
Sales (S) 2 778 13,60 3,38 0,03 68,79 28,28 1 061,70 0,02 0,11 0,27 0,90 3,38 10,23 26,29 158,12 2 834,58 Employees (Em.) 1 776 10,13 5,00 1,00 21,41 12,61 272,34 1,00 1,00 1,00 2,00 5,00 11,00 22,00 100,69 566,00
Grow
th Growth of Asset 2 778 1,58 0,00 0,00 29,47 44,01 2 071,90 0,00 0,00 0,00 0,00 0,00 1,00 1,00 10,21 1 437,00
Growth of Sale 2 778 19,12 1,00 0,00 390,59 37,19 1 614,17 0,00 0,00 0,00 0,00 1,00 1,00 1,00 74,26 17 906,00 Growth of NOE 2 778 1,65 0,00 0,00 94,07 40,74 2 041,41 -46,00 -7,00 -2,00 0,00 0,00 1,00 4,00 41,21 4 584,00
Asse
t Str
uctu
re
Investment 2 778 0,35 0,00 0,00 9,47 48,36 2 454,61 0,00 0,00 0,00 0,00 0,00 0,00 0,00 3,38 483,94 Working Capital(WC) 2 778 1,31 0,12 0,10 22,48 41,85 2 035,88 -6,94 -1,89 -0,90 -0,15 0,12 0,71 2,47 21,85 1 096,67
Asset to Em. 2 778 1,21 0,26 0,00 5,22 11,31 164,46 0,00 0,00 0,00 0,00 0,26 0,72 1,76 23,58 104,45 Sale to Em. 2 778 1,34 0,56 0,00 4,86 22,19 700,33 0,00 0,00 0,00 0,00 0,56 1,39 2,77 13,34 179,00 Current asset to A 2 778 0,63 0,00 0,00 1,68 3,24 10,24 0,00 0,00 0,00 0,00 0,00 0,00 2,00 8,00 9,00 WC to A 2 778 -0,58 0,00 0,00 24,51 -34,72 1 272,49 -9,00 -6,00 -3,00 0,00 0,00 0,00 5,00 9,00 9,00
Capit
al
Struc
ture
Debt (D) 2 778 7,59 2,15 0,00 39,48 36,34 1 633,63 0,01 0,13 0,27 0,78 2,15 5,83 14,58 92,21 1 827,63 Current D to D 2 778 0,78 0,00 0,00 1,55 3,26 12,46 0,00 0,00 0,00 0,00 0,00 1,00 1,00 8,00 9,00 Debt to Asset 2 778 1,65 0,00 0,00 32,68 37,97 1 578,33 0,00 0,00 0,00 0,00 0,00 0,00 1,00 10,00 1 464,00
Pay- out Dividend 2 778 -0,77 0,00 0,00 15,31 -51,34 2 680,58 -9,00 -2,01 -1,00 -0,25 0,00 0,00 0,00 0,00 0,10
DividendPayout 2 778 -0,17 0,00 0,00 8,05 24,18 997,68 -7,00 -2,00 -1,00 0,00 0,00 0,00 0,00 0,00 312,00
Profi
tabili
ty Net Operating Earning (NOE) 2 778 0,72 0,08 18,29 50,99 2 657,44 -3,90 -1,00 -0,40 -0,06 0,08 0,44 1,33 9,62 953,55
ROA 2 778 18,35 8,00 6,00 1 237,46 48,39 2 498,44 -249,63
-47,10
-21,00 0,00 8,00 19,00 37,00 83,42 63 500,00
Age 2 778 10,54 7,00 3,00 12,14 3,54 17,52 0,00 1,00 1,00 3,00 7,00 14,00 21,00 73,21 107,00
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Panel E: Recipient Firm
N Mean Median Mode Std. Deviation Skewness Kurtosis Percentiles
Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Size Total Asset (A) 2 821 8,40 3,05 0,90 73,54 21,48 627,10 0,06 0,19 0,38 1,07 3,05 8,33 22,93 226,59 2 579,84
Sales (S) 2 821 8,60 1,77 0,03 27,48 11,92 226,42 0,02 0,07 0,16 0,51 1,77 6,38 20,04 114,70 733,35 Employees (Em.) 1 483 8,87 4,00 1,00 20,34 10,50 173,25 1,00 1,00 1,00 1,00 4,00 9,00 19,00 90,12 446,00
Grow
th Growth of Asset 2 821 9,55 0,00 0,00 417,42 52,84 2 801,15 0,00 0,00 0,00 0,00 0,00 1,00 1,00 8,00 22 133,00
Growth of Sale 2 821 47,45 1,00 0,00 1 357,86 42,60 1 979,72 0,00 0,00 0,00 0,00 1,00 1,00 2,00 99,78 65 688,00 Growth of NOE 2 821 1,77 0,00 0,00 52,46 9,55 334,20 -45,78 -8,00 -3,00 0,00 0,00 1,00 4,00 58,56 1 435,00
Asse
t Str
uctu
re
Investment 2 821 1,23 0,00 0,00 24,88 38,92 1 691,29 0,00 0,00 0,00 0,00 0,00 0,00 0,12 11,19 1 151,14 Working Capital(WC) 2 821 1,00 0,07 0,10 21,79 28,67 1 097,35 -13,42 -2,96 -1,35 -0,29 0,07 0,58 2,59 24,96 898,23
Asset to Em. 2 821 2,99 0,11 0,00 27,21 25,40 764,66 0,00 0,00 0,00 0,00 0,11 0,73 2,53 49,94 887,56 Sale to Em. 2 821 1,09 0,16 0,00 6,22 31,81 1 146,61 0,00 0,00 0,00 0,00 0,16 1,12 2,36 12,11 244,45 Current asset to A 2 821 0,97 0,00 0,00 2,15 2,39 4,83 0,00 0,00 0,00 0,00 0,00 1,00 4,00 9,00 9,00 WC to A 2 821 -0,04 0,00 0,00 4,04 -7,06 135,70 -9,00 -6,00 -4,00 0,00 0,00 0,00 4,00 9,00 9,00
Capit
al
Struc
ture
Debt (D) 2 821 9,73 2,38 0,00 42,36 17,94 473,98 0,01 0,10 0,26 0,82 2,38 6,56 17,21 154,61 1 404,79 Current D to D 2 821 0,86 0,00 0,00 1,75 2,92 9,15 0,00 0,00 0,00 0,00 0,00 1,00 2,00 9,00 9,00 Debt to Asset 2 821 0,65 0,00 0,00 8,71 33,08 1 259,27 0,00 0,00 0,00 0,00 0,00 0,00 1,00 8,00 369,00
Pay- out Dividend 2 821 -1,30 0,00 0,00 15,83 -31,85 1 181,93 -14,65 -3,00 -1,30 -0,34 0,00 0,00 0,00 0,00 0,00
DividendPayout 2 821 -0,30 0,00 0,00 14,25 21,92 1 135,97 -12,00 -2,00 -1,00 0,00 0,00 0,00 0,00 2,00 583,00
Profi
tabili
ty Net Operating Earning (NOE) 2 821 1,27 0,10 0,00 13,43 25,01 747,47 -3,11 -0,65 -0,27 -0,02 0,10 0,50 1,51 19,06 472,23
ROA 2 821 7,42 8,00 7,00 194,43 17,31 1 107,22 -105,00
-23,00 -9,00 2,00 8,00 19,50 36,00 84,00 7 925,00
Age 2 821 13,31 10,00 5,00 13,29 2,88 12,66 0,00 1,00 2,00 5,00 10,00 17,00 27,00 72,78 131,00
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Appendix 5: Corporate governance Descriptive statistics Panel A: Family Firm Total
N Mean Median Mode Std.
Deviation Skewness Kurtosis Percentiles Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Sum of Largest family ultimate share
69 935 91,73 100,00 100,00 14,78 -1,49 0,63 51,00 60,00 65,00 90,00 100,00 100,00 100,00 100,00 100,00
Sum of Largest family direct share 69 935 66,46 66,00 100,00 34,63 -0,68 -0,72 0,00 0,00 0,00 50,00 66,00 100,00 100,00 100,00 100,00 Second Largest share 69 935 5,24 0,00 0,00 11,82 2,39 5,46 0,00 0,00 0,00 0,00 0,00 0,00 25,00 48,00 50,00 CEO Holding 69 935 49,64 51,00 0,00 41,28 -0,02 -1,61 0,00 0,00 0,00 0,00 51,00 100,00 100,00 100,00 100,00 # Family Owner 69 935 1,60 1,00 1,00 0,95 1,92 4,52 1,00 1,00 1,00 1,00 1,00 2,00 3,00 5,00 10,00 # Family chair 69 935 1,42 1,00 1,00 0,81 1,59 2,98 0,00 1,00 1,00 1,00 1,00 2,00 3,00 4,00 8,00 # Owner 69 935 2,01 2,00 1,00 1,40 4,13 52,75 1,00 1,00 1,00 1,00 2,00 2,00 4,00 7,00 47,00 # Personal Owner 69 935 1,90 2,00 1,00 1,25 3,28 30,31 1,00 1,00 1,00 1,00 2,00 2,00 3,00 6,00 34,00 Board Size 69 895 1,86 1,00 1,00 1,09 1,23 9 986,43 1,00 1,00 1,00 1,00 1,00 3,00 3,00 5,00 10,00 Frequency Percentage Total 0 1 2 0 1 2 Listed 69 935 69 928 7 99,99 0,01 * 1 for listed firm, 0 for unlisted firm Family CEO 69 935 16 869 53 066 24,12 75,88 * 1 : Largest family has CEO, 0 for otherwise Family Chair 69 935 7 939 61 996 11,35 88,65 * 1 : Largest family has board seat, 0 for otherwise CEO and Chair 69 935 3 254 18 300 48
381 4,65 26,17 69,18 * 2 : Largest family has CEO and board seat , 1 : either CEO or board seat
, and 0 for otherwise
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Panel B: Stand Alone
N Mean Median Mode Std.
Deviation Skewness Kurtosis Percentiles Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Sum of Largest family ultimate share
43 114 91,90 100,00 100,00 14,76 -1,50 0,60 51,00 60,00 65,00 91,00 100,00 100,00 100,00 100,00 100,00
Sum of Largest family direct share 43 114 77,80 90,00 100,00 24,46 -0,67 -0,49 0,00 34,00 50,00 60,00 90,00 100,00 100,00 100,00 100,00 Second Largest share 43 114 5,23 0,00 0,00 11,71 2,19 3,64 0,00 0,00 0,00 0,00 0,00 0,00 27,00 45,00 50,00 CEO Holding 43 114 60,21 65,00 100,00 38,69 -0,45 -1,26 0,00 0,00 0,00 30,00 65,00 100,00 100,00 100,00 100,00 # Family Owner 43 114 1,49 1,00 1,00 0,83 2,05 4,99 1,00 1,00 1,00 1,00 1,00 2,00 3,00 4,00 10,00 # Family chair 43 114 1,37 1,00 1,00 0,75 1,79 3,81 0,00 1,00 1,00 1,00 1,00 2,00 2,00 4,00 7,00 # Owner 43 114 1,85 2,00 1,00 1,20 5,02 96,66 1,00 1,00 1,00 1,00 2,00 2,00 3,00 6,00 47,00 # Personal Owner 43 114 1,75 1,00 1,00 1,07 3,55 44,97 1,00 1,00 1,00 1,00 1,00 2,00 3,00 5,00 34,00 Board Size 43 094 1,71 1,00 1,00 0,98 1,34 43 114,00 1,00 1,00 1,00 1,00 1,00 2,00 3,00 5,00 8,00 Frequency Percentage Total 0 1 2 0 1 2 Listed 43 114 43 113 1 100,00 0,00 * 1 for listed firm, 0 for unlisted firm Family CEO 43 114 7 653 35 461 17,75 82,25 * 1 : Largest family has CEO, 0 for otherwise Family Chair 43 114 3 921 39 193 9,09 90,91 * 1 : Largest family has board seat, 0 for otherwise CEO and Chair 43 114 1 183 9 208 32
723 2,74 21,36 75,90 * 2 : Largest family has CEO and board seat , 1 : either CEO or board seat
, and 0 for otherwise
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Panel C: Family group
N Mean Median Mode Std.
Deviation Skewness Kurtosis Percentiles Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Sum of Largest family ultimate share
8 879 83,01 90,00 100,00 18,09 -0,41 -1,47 51,00 52,00 56,00 66,00 90,00 100,00 100,00 100,00 100,00
Sum of Largest family direct share 8 879 43,53 50,00 0,00 37,29 0,16 -1,35 0,00 0,00 0,00 0,00 50,00 70,00 100,00 100,00 100,00 Second Largest share 8 879 10,55 0,00 0,00 15,66 1,50 1,92 0,00 0,00 0,00 0,00 0,00 20,00 34,00 48,00 49,00 CEO Holding 8 879 28,50 0,00 0,00 35,63 0,88 -0,67 0,00 0,00 0,00 0,00 0,00 55,00 100,00 100,00 100,00 CF Wedge 8 879 11,89 0,00 0,00 16,78 0,98 -0,65 0,00 0,00 0,00 0,00 0,00 26,00 40,00 49,00 49,00 # Family Owner 8 879 1,78 1,00 1,00 1,09 1,63 2,92 1,00 1,00 1,00 1,00 1,00 2,00 3,00 5,00 9,00 # Family chair 8 879 1,43 1,00 1,00 0,87 1,31 2,39 0,00 0,00 1,00 1,00 1,00 2,00 3,00 4,00 7,00 # Owner 8 879 2,72 2,00 2,00 1,97 3,36 25,68 1,00 1,00 1,00 1,00 2,00 3,00 5,00 11,00 37,00 # Personal Owner 8 879 2,48 2,00 1,00 1,72 2,93 19,53 1,00 1,00 1,00 1,00 2,00 3,00 4,00 9,00 27,00 Board Size 8 873 2,30 2,00 1,00 1,25 0,80 0,52 1,00 1,00 1,00 1,00 2,00 3,00 4,00 6,00 9,00 Frequency Percentage Total 0 1 2 0 1 2 Listed 8 879 8 875 4 99,95 0,05 * 1 for listed firm, 0 for unlisted firm Family CEO 8 879 3 791 5 088 42,70 57,30 * 1 : Largest family has CEO, 0 for otherwise Family Chair 8 879 1 823 7 056 20,53 79,47 * 1 : Largest family has board seat, 0 for otherwise CEO and Chair 8 879 1 047 3 520 4 312 11,79 39,64 48,56 * 2 : Largest family has CEO and board seat , 1 : either CEO or board seat
, and 0 for otherwise
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Panel D: Tunneled Firm
N Mean Median Mode Std.
Deviation Skewness Kurtosis Percentiles Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Sum of Largest family ultimate share
2 778 64,38 65,00 66,00 8,62 0,16 -0,87 51,00 51,00 52,00 58,00 65,00 70,00 77,00 80,00 80,00
Sum of Largest family direct share 2 778 36,08 40,00 0,00 27,35 -0,19 -1,48 0,00 0,00 0,00 0,00 40,00 60,00 66,00 80,00 80,00 Second Largest share 2 778 20,12 20,00 0,00 14,94 0,10 -1,12 0,00 0,00 0,00 7,00 20,00 33,00 40,00 49,00 49,00 CEO Holding 2 778 24,73 20,00 0,00 26,15 0,52 -1,24 0,00 0,00 0,00 0,00 20,00 50,00 65,00 80,00 80,00 CF Wedge 2 778 31,43 34,00 34,00 11,98 -0,59 -0,22 2,00 7,00 15,00 24,00 34,00 40,00 47,00 49,00 49,00 # Family Owner 2 778 1,65 1,00 1,00 0,96 1,88 4,80 1,00 1,00 1,00 1,00 1,00 2,00 3,00 5,00 9,00 # Family chair 2 778 1,33 1,00 1,00 0,73 1,28 2,79 0,00 0,00 1,00 1,00 1,00 2,00 2,00 4,00 6,00 # Owner 2 778 3,48 3,00 2,00 2,17 4,49 40,58 1,00 2,00 2,00 2,00 3,00 4,00 6,00 12,00 37,00 # Personal Owner 2 778 3,03 3,00 2,00 1,95 3,71 27,72 1,00 1,00 1,00 2,00 3,00 4,00 5,00 10,00 27,00 Board Size 2 777 2,56 3,00 3,00 1,23 0,55 1 386,50 1,00 1,00 1,00 2,00 3,00 3,00 4,00 6,00 8,00 Frequency Percentage Total 0 1 2 0 1 2 Listed 2 778 2 776 2 99,93 0,07 * 1 for listed firm, 0 for unlisted firm Family CEO 2 778 1 313 1 465 47,26 52,74 * 1 : Largest family has CEO, 0 for otherwise Family Chair 2 778 718 2 060 25,85 74,15 * 1 : Largest family has board seat, 0 for otherwise CEO and Chair 2 778 385 1 261 1 132 13,86 45,39 40,75 * 2 : Largest family has CEO and board seat , 1 : either CEO or board seat
, and 0 for otherwise
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Panel E: Recipient Firm
N Mean Media
n Mode Std. Deviation
Skewness
Kurtosis
Percentiles Valid p1 p5 p10 p25 p50 p75 p90 p99 p100
Sum of Largest family ultimate share
2 821 95,74 100,00 100,00 9,91 -2,38 4,58 60,00 69,10 80,00 100,0
0 100,0
0 100,0
0 100,0
0 100,0
0 100,00
Sum of Largest family direct share 2 821 65,06 66,00 100,0
0 35,33 -0,58 -0,93 0,00 0,00 0,00 45,00 66,00 100,00
100,00
100,00 100,00
Second Largest share 2 821 3,51 0,00 0,00 10,52 4,16 21,20 0,00 0,00 0,00 0,00 0,00 0,00 0,00 8,00 12,00
CEO Holding 2 821 43,27 40,00 0,00 41,64 0,25 -1,59 0,00 0,00 0,00 0,00 40,00 100,00
100,00
100,00 100,00
# Family Owner 2 821 1,77 1,00 1,00 1,07 1,59 2,73 1,00 1,00 1,00 1,00 1,00 2,00 3,00 5,00 9,00 # Family chair 2 821 1,56 1,00 1,00 0,91 1,37 1,88 0,00 1,00 1,00 1,00 1,00 2,00 3,00 4,78 6,00 # Owner 2 821 2,04 2,00 1,00 1,33 2,20 11,41 1,00 1,00 1,00 1,00 2,00 3,00 4,00 6,00 18,00 # Personal Owner 2 821 1,97 2,00 1,00 1,23 2,04 10,20 1,00 1,00 1,00 1,00 2,00 3,00 4,00 6,00 17,00 Board Size 2 821 1,98 2,00 1,00 1,14 1,09 1,00 1,00 1,00 1,00 2,00 3,00 3,00 5,00 8,00 Frequency Percentage Total 0 1 2 0 1 2 Listed 2 821 2 821 0 100,00 0,00 * 1 for listed firm, 0 for unlisted firm Family CEO 2 821 814 2 007 28,86 71,14 * 1 : Largest family has CEO, 0 for otherwise Family Chair 2 821 311 2 510 11,02 88,98 * 1 : Largest family has board seat, 0 for otherwise CEO and Chair 2 821 125 875 1 821 4,43 31,02 64,55 * 2 : Largest family has CEO and board seat , 1 : either CEO or board seat
, and 0 for otherwise
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Appendix 6: Industry descriptive statistics - Industry Frequency
N % of Total N % of Total N % of Total N % of Total N % of Total1. Agriculture and hunting 355 0,53 % 247 0,60 % 28 0,33 % 10 0,38 % 14 0,53 %10. Oil and gas extraction,incl.services 1 0,00 % 1 0,00 % 0,00 % 0,00 % 0,00 %14. Other mining and quarrying 188 0,28 % 105 0,26 % 22 0,26 % 10 0,38 % 2 0,08 %2. Food products and beverages 130 0,20 % 106 0,26 % 6 0,07 % 2 0,08 % 2 0,08 %5. Textile products 806 1,21 % 470 1,15 % 149 1,75 % 47 1,78 % 37 1,40 %
Sum 1 480 2,22 % 929 2,27 % 205 2,41 % 69 2,61 % 55 2,09 %15. Wearing apprel., fur 700 1,05 % 375 0,92 % 99 1,16 % 29 1,10 % 25 0,95 %16. Footwear and leather products 1 0,00 % 0,00 % 0,00 % 0,00 % 0,00 %17. Forestry and logging 169 0,25 % 100 0,24 % 19 0,22 % 8 0,30 % 5 0,19 %18. Wood and wood products 57 0,09 % 36 0,09 % 5 0,06 % 2 0,08 % 2 0,08 %19. Pulp,paper and paper products 19 0,03 % 12 0,03 % 2 0,02 % 0,00 % 1 0,04 %20. Publishing,printing,reproduction 489 0,73 % 319 0,78 % 58 0,68 % 18 0,68 % 15 0,57 %21. Refined petroleum products 37 0,06 % 14 0,03 % 7 0,08 % 5 0,19 % 0,00 %22. Chemicals and chemical products 1 027 1,54 % 698 1,71 % 126 1,48 % 42 1,59 % 37 1,40 %23. Rubber and plasitc products 2 0,00 % 2 0,00 % 0,00 % 0,00 % 0,00 %24. Other non-metallic mineral products 77 0,12 % 46 0,11 % 12 0,14 % 6 0,23 % 2 0,08 %25. Basic metals 176 0,26 % 95 0,23 % 23 0,27 % 11 0,42 % 7 0,27 %27. Fabricated metal products 47 0,07 % 30 0,07 % 6 0,07 % 1 0,04 % 2 0,08 %28. Machinery and equipment n.e.c. 683 1,03 % 432 1,06 % 76 0,89 % 30 1,14 % 12 0,46 %29. Office machinery and computers 612 0,92 % 402 0,98 % 70 0,82 % 28 1,06 % 17 0,65 %30. Electrical machinery and apparatus 12 0,02 % 9 0,02 % 2 0,02 % 0,00 % 0,00 %31. Radio, TV sets, communication equip 166 0,25 % 111 0,27 % 16 0,19 % 9 0,34 % 1 0,04 %32. Instruments, watches and clocks 36 0,05 % 21 0,05 % 6 0,07 % 2 0,08 % 1 0,04 %33. Motor vehicles,trailers, semi-tr 199 0,30 % 134 0,33 % 31 0,36 % 14 0,53 % 10 0,38 %34. Other transport equipment 63 0,09 % 24 0,06 % 8 0,09 % 4 0,15 % 3 0,11 %35. Furniture, manufacturing n.e.c. 324 0,49 % 163 0,40 % 63 0,74 % 18 0,68 % 9 0,34 %36. Recycling 384 0,58 % 264 0,65 % 20 0,23 % 4 0,15 % 4 0,15 %
Sum 5 280 7,93 % 3 287 8,04 % 649 7,62 % 231 8,75 % 153 5,81 %11. Electricity, gas and stream supply 50 0,08 % 29 0,07 % 13 0,15 % 3 0,11 % 5 0,19 %40. Water supply 42 0,06 % 27 0,07 % 7 0,08 % 4 0,15 % 2 0,08 %
Sum 92 0,14 % 56 0,14 % 20 0,23 % 7 0,27 % 7 0,27 %45. Contruction 6 777 10,18 % 5 124 12,54 % 503 5,90 % 200 7,58 % 149 5,65 %
Sum 6 777 10,18 % 5 124 12,54 % 503 5,90 % 200 7,58 % 149 5,65 %37. Fishing,fish farming,incl.services 41 0,06 % 14 0,03 % 9 0,11 % 4 0,15 % 0,00 %41. Motor vehicles services 4 0,01 % 2 0,00 % 0,00 % 0,00 % 0,00 %50. Wholesale trade, commision trade 3 092 4,65 % 1 840 4,50 % 381 4,47 % 120 4,55 % 108 4,10 %55. Retail trade, repair personal goods 2 505 3,76 % 1 440 3,52 % 335 3,93 % 105 3,98 % 95 3,61 %64. Hotels and restaurants 105 0,16 % 67 0,16 % 18 0,21 % 9 0,34 % 1 0,04 %70. Land trandsport, pipeline transport 12 355 18,56 % 4 656 11,40 % 2 442 28,66 % 544 20,61 % 894 33,93 %71. Water transport 676 1,02 % 280 0,69 % 121 1,42 % 33 1,25 % 39 1,48 %72. Air transport 1 527 2,29 % 1 095 2,68 % 195 2,29 % 92 3,49 % 52 1,97 %73. Supporting transport activities 46 0,07 % 32 0,08 % 6 0,07 % 4 0,15 % 1 0,04 %74. Post and telecommunications 9 474 14,23 % 6 998 17,13 % 1 012 11,88 % 370 14,02 % 319 12,11 %80. Financial intermediation, less ins. 435 0,65 % 323 0,79 % 37 0,43 % 20 0,76 % 9 0,34 %85. Insurance and pension funding 1 709 2,57 % 1 352 3,31 % 110 1,29 % 48 1,82 % 35 1,33 %90. Ausiliary financial intermediation 128 0,19 % 72 0,18 % 14 0,16 % 8 0,30 % 2 0,08 %91. Real estate activities 10 0,02 % 2 0,00 % 4 0,05 % 1 0,04 % 0,00 %92. Renting of machinery and equipment 795 1,19 % 517 1,27 % 95 1,11 % 34 1,29 % 19 0,72 %93. Computers and related activities 901 1,35 % 615 1,51 % 101 1,19 % 26 0,99 % 30 1,14 %95. Research and development 1 0,00 % 1 0,00 % 0,00 % 0,00 % 0,00 %
Sum 33 804 50,79 % 19 306 47,25 % 4 880 57,26 % 1 418 53,73 % 1 604 60,87 %51. Other business activities 6 513 9,79 % 4 072 9,97 % 845 9,92 % 312 11,82 % 263 9,98 %52. Education 9 464 14,22 % 6 028 14,75 % 1 001 11,75 % 286 10,84 % 294 11,16 %
Sum 15 977 24,00 % 10 100 24,72 % 1 846 21,66 % 598 22,66 % 557 21,14 %60. Health and social work 1 821 2,74 % 1 417 3,47 % 122 1,43 % 43 1,63 % 41 1,56 %61. Sewage, refuse disposal activities 561 0,84 % 173 0,42 % 181 2,12 % 38 1,44 % 31 1,18 %62. Membership organizations n.e.c. 15 0,02 % 7 0,02 % 5 0,06 % 1 0,04 % 3 0,11 %63. Cultural and sporting activities 753 1,13 % 461 1,13 % 111 1,30 % 34 1,29 % 35 1,33 %
Sum 3 150 4,73 % 2 058 5,04 % 419 4,92 % 116 4,40 % 110 4,17 %66 560 95,17 % 40 860 94,77 % 8 522 95,98 % 2 639 95,00 % 2 635 93,41 %
466 4,16 % 235 0,55 % 72 0,81 % 18 0,65 % 22 0,78 %2 909 0,67 % 2 019 4,68 % 285 3,21 % 121 4,36 % 164 5,81 %
69 935 100,00 % 43 114 100,00 % 8 879 100,00 % 2 778 100,00 % 2 821 100,00 %
Max CF
TotalUnclassified ('88')Multi industry
Total
8
Family Firm Stand Alone Group Firm Min CF
1
2
3
4
5
7
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Appendix 7: Industry descriptive statistics-Industry ROA
Mean Median Std. Mean Median Std. Mean Median Std.1 4,54 7,00 37,94 2,51 7,00 42,31 6,89 6,50 20,57
10 1,00 1,00 1,00 1,0014 -2,09 8,00 133,77 7,35 10,00 37,57 3,05 7,00 18,032 4,43 7,00 28,50 3,99 7,50 29,29 23,83 8,50 29,035 32,25 0,00 1339,25 54,06 0,00 1751,43 0,85 0,00 28,96
Sum 18,77 2,00 989,51 29,30 2,00 1245,65 2,58 2,00 27,1415 9,23 8,00 160,65 5,50 8,00 29,07 4,41 6,00 23,4216 8,00 8,0017 9,94 9,00 30,11 11,63 9,00 35,88 6,84 7,00 19,2518 85,09 4,00 701,09 132,64 3,00 882,97 -18,60 3,00 47,9019 4,26 7,00 14,04 3,50 4,00 17,19 6,00 6,00 2,8320 7,03 8,00 92,86 7,17 8,00 76,79 6,71 6,00 16,3521 6,03 6,00 19,82 2,29 7,50 28,37 8,43 4,00 15,9522 3,62 8,00 91,54 5,28 9,00 102,20 3,55 6,00 37,9823 8,50 8,50 16,26 8,50 8,50 16,2624 8,55 10,00 34,18 6,85 10,50 27,35 -9,83 0,00 52,0525 7,62 8,00 29,01 8,53 7,00 31,18 8,35 9,00 7,6127 7,51 7,00 15,91 6,90 6,00 15,48 -1,83 6,00 19,1728 13,75 8,00 204,51 18,32 8,00 256,41 3,20 5,50 23,3829 11,08 10,00 84,08 16,43 10,00 86,85 -7,37 5,00 107,9130 -46,17 10,00 137,23 -73,00 7,00 150,26 42,00 42,00 15,5631 -10,75 7,00 144,75 -17,06 7,00 172,95 6,56 5,50 17,0432 7,06 14,00 62,09 3,90 6,00 75,03 25,50 20,50 13,0733 9,77 12,00 40,20 11,91 12,00 36,49 -5,13 7,00 49,1734 9,24 6,00 17,24 9,33 6,50 15,30 1,25 2,50 15,8935 6,10 7,00 32,17 9,09 8,00 30,60 0,51 4,00 35,2736 2,91 7,00 201,35 3,43 6,00 241,03 8,95 13,50 21,28
Sum 8,06 8,00 145,74 9,63 8,00 163,98 2,43 6,00 45,3511 16,34 14,50 33,73 22,59 16,00 25,42 13,00 9,00 36,4440 -5,33 7,00 76,59 -13,22 7,00 94,91 8,86 8,00 11,78
Sum 6,45 9,00 58,08 5,32 9,00 70,09 11,55 8,50 29,7845 8,77 11,00 62,85 8,57 11,00 69,85 8,63 9,00 23,33
Sum 8,77 11,00 62,85 8,57 11,00 69,85 8,63 9,00 23,3337 11,20 14,00 40,23 3,57 4,50 35,65 1,78 13,00 35,5341 31,50 26,00 36,57 25,00 25,00 35,3650 21,84 8,00 1043,14 3,81 9,00 242,24 0,46 8,00 406,7955 -13,25 4,00 233,52 -14,85 5,00 261,66 -0,36 4,00 61,8764 -62,80 10,00 373,82 -20,24 14,00 208,27 -24,28 2,00 125,5170 14,54 8,00 648,27 22,13 8,00 1031,86 11,08 8,00 29,3271 16,71 7,00 223,95 16,87 7,00 260,29 38,42 7,00 347,6972 -6,69 10,00 212,65 -0,70 12,00 157,93 -37,08 5,00 429,8173 9,72 1,00 48,22 7,84 2,00 50,54 31,67 22,00 54,0274 11,04 14,00 666,39 18,15 15,00 738,94 6,27 11,00 74,3280 -0,50 9,00 119,89 5,84 11,00 61,09 -62,19 1,00 364,6185 47,07 27,00 864,99 28,00 30,00 36,61 27,56 23,50 39,3790 9,77 9,00 25,15 14,21 14,00 25,24 4,79 5,00 36,3991 10,60 8,50 21,82 36,00 36,00 19,80 9,25 7,50 22,4492 19,91 7,00 605,31 43,36 8,00 725,40 -12,42 3,00 126,1693 4,50 11,00 165,25 3,00 11,00 194,25 -9,58 9,00 82,9995 10,00 10,00 10,00 10,00
Sum 12,29 9,00 657,68 14,70 11,00 695,31 6,01 8,00 163,5651 10,22 9,00 338,18 13,76 9,00 412,68 -6,81 8,00 202,1752 1,85 8,00 222,44 4,10 9,00 171,03 -9,25 9,00 350,03
Sum 5,26 9,00 275,58 7,99 9,00 293,48 -8,13 8,00 291,7360 6,51 9,00 151,15 5,01 9,00 165,95 16,37 9,00 73,6461 14,50 7,00 357,40 -8,19 8,00 204,69 48,92 7,00 590,4762 5,40 10,00 16,30 0,57 5,00 19,99 8,00 10,00 12,3563 3,94 9,00 155,10 8,15 8,00 150,93 -16,84 10,00 253,88
Sum 7,32 9,00 204,15 7,99 9,00 293,48 21,53 8,00 411,589,81 9,00 513,55 11,67 10,00 537,72 3,52 8,00 205,70
7
8
Total
Family Firm Stand Alone
5
Group Firm
1
2
3
4
Tunneling (GRA 1900 Master Thesis) 01.09.2010
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Appendix 8 : Industry descriptive statistics-Industry Asset
Mean Median Std. Mean Median Std. Mean Median Std.1 4,46 2,11 7,32 3,26 1,62 5,11 7,91 6,03 6,85
10 0,15 0,15 0,00 0,15 0,15 0,00 0,00 0,00 0,0014 15,97 2,38 54,43 3,21 1,61 4,00 74,34 7,03 137,262 5,09 1,75 16,10 2,52 1,56 2,78 31,26 3,80 64,525 26,00 6,16 76,52 13,03 3,53 24,72 43,94 12,24 84,95
Sum 17,70 3,23 60,76 8,11 2,27 18,53 41,91 8,77 86,9615 14,97 3,68 39,03 6,97 1,97 13,95 32,30 12,57 54,6916 30,43 30,43 0,00 0,00 0,00 0,00 0,00 0,00 0,0017 9,64 2,07 24,97 3,57 1,13 8,37 37,53 9,55 59,7718 4,28 0,92 10,01 1,66 0,47 3,53 1,81 1,33 1,4019 13,02 3,39 24,03 12,36 3,56 25,92 0,29 0,29 0,0520 9,04 2,65 22,31 4,40 1,94 8,48 20,92 8,14 28,8821 201,10 5,21 761,20 5,98 2,07 10,14 15,21 7,57 19,0622 3,84 1,14 11,16 1,90 0,89 3,27 9,05 2,38 22,5323 4,54 4,54 1,38 4,54 4,54 1,38 0,00 0,00 0,0024 23,92 1,86 119,30 3,82 1,42 5,61 23,59 2,05 38,7925 9,61 2,29 26,13 3,97 1,33 9,08 12,17 5,68 14,1927 13,21 4,21 29,11 11,26 2,91 31,85 31,38 15,66 35,1528 6,28 2,10 13,24 3,36 1,42 6,35 15,23 8,10 25,7629 8,81 1,82 41,59 3,63 1,21 18,31 31,97 4,16 108,7230 7,06 0,71 12,68 4,63 0,66 7,33 21,12 21,12 29,1731 5,92 1,39 12,95 3,08 1,02 5,64 16,21 7,31 24,9432 6,22 1,01 12,22 1,01 0,67 0,87 21,12 21,78 15,3833 7,81 1,40 61,89 8,78 1,03 75,25 7,79 2,93 11,4034 11,79 5,33 18,97 6,76 2,67 8,09 12,85 13,49 7,9435 28,87 3,77 149,75 3,76 1,84 4,83 101,03 10,71 326,5736 8,33 1,91 30,28 3,11 1,14 6,66 40,01 10,26 80,21
Sum 11,06 2,01 81,18 3,95 1,32 18,27 28,45 6,03 114,8411 7,57 1,52 18,98 1,59 0,86 1,98 17,48 3,12 30,8040 11,70 2,74 37,63 2,69 1,90 2,57 56,01 7,29 83,04
Sum 9,46 2,11 28,92 2,12 1,21 2,33 30,96 4,31 55,9745 4,48 1,67 17,62 2,63 1,32 5,38 11,42 3,53 50,34
Sum 4,48 1,67 17,62 2,63 1,32 5,38 11,42 3,53 50,3437 14,29 3,59 31,73 6,70 1,86 9,92 33,20 5,28 62,1041 28,36 0,59 55,85 0,59 0,59 0,59 0,00 0,00 0,0050 5,62 2,19 13,51 3,12 1,80 5,40 9,83 3,57 17,7155 3,85 1,24 13,91 2,19 0,91 4,71 9,49 2,08 32,7064 7,96 0,91 52,92 1,46 0,68 2,23 33,92 1,15 126,9870 16,15 4,04 85,37 6,91 2,55 23,27 34,61 6,06 175,6671 7,70 1,81 26,83 3,14 1,12 7,14 14,73 3,03 44,5172 2,01 0,63 11,00 1,12 0,56 1,98 5,47 0,95 28,3173 3,19 0,79 8,71 1,51 0,42 3,32 10,65 1,04 21,7374 4,70 0,78 52,57 1,76 0,67 8,29 19,66 1,61 143,9580 1,80 0,74 4,09 1,18 0,66 1,62 2,31 0,86 2,9885 2,54 1,29 6,32 1,85 1,18 2,40 8,29 2,23 20,9990 10,41 2,97 33,78 3,56 2,02 4,15 10,20 4,25 16,1191 2,42 1,53 2,30 0,51 0,51 0,40 2,53 2,56 2,2292 3,16 0,72 10,02 1,47 0,50 3,39 8,96 3,00 21,8893 1,97 0,81 4,95 1,23 0,65 2,02 3,08 1,27 6,9895 1,94 1,94 0,00 1,94 1,94 0,00 0,00 0,00 0,00
Sum 8,63 1,69 59,52 3,13 1,05 12,91 24,07 3,58 141,8651 6,73 1,67 38,10 3,25 1,22 7,60 15,08 3,36 81,3252 5,64 1,78 77,87 2,66 1,47 5,23 15,76 2,34 198,86
Sum 6,09 1,74 64,68 2,90 1,37 6,30 15,45 2,66 156,4060 3,73 1,63 7,10 2,73 1,47 4,51 6,39 2,90 11,6461 78,90 6,18 267,01 7,46 2,16 17,92 157,04 14,32 402,9362 23,27 3,77 58,97 3,16 0,60 4,16 55,82 16,17 99,0063 8,77 1,66 46,37 4,18 1,18 20,53 18,79 4,26 48,10
Sum 18,42 1,94 118,47 3,46 1,45 11,70 75,34 6,59 275,298,46 1,76 64,15 3,20 1,22 11,59 24,76 3,60 148,46
7
8
Total
Family Firm Stand Alone
5
Group Firm
1
2
3
4
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 60
Appendix 9 : Industry descriptive statistics-Industry Sale
Mean Median Std. Mean Median Std. Mean Median Std.1 6,81 3,63 9,24 5,42 3,05 7,15 14,45 10,94 15,76
10 0,80 0,80 0,00 0,80 0,80 0,00 0,00 0,00 0,0014 11,16 2,44 31,45 3,44 1,69 4,55 42,88 10,69 75,002 3,83 2,58 4,41 3,36 2,47 3,57 7,58 5,70 6,695 10,02 2,24 26,99 5,40 1,68 9,03 20,28 4,15 44,67
Sum 8,85 2,53 23,41 4,94 2,11 7,70 21,54 4,98 46,0815 26,52 7,18 62,73 14,36 4,62 31,58 56,16 20,16 115,3716 46,39 46,39 0,00 0,00 0,00 0,00 0,00 0,00 0,0017 11,03 2,94 23,92 4,82 1,94 10,60 35,02 8,21 52,3018 7,32 1,47 16,82 2,94 0,60 5,92 2,54 1,58 3,3119 17,25 4,27 37,31 8,56 4,34 15,05 0,33 0,33 0,4120 14,52 4,01 40,60 6,40 3,09 10,41 32,32 13,42 45,9921 98,69 5,61 328,83 12,78 3,36 23,21 26,02 10,83 47,9022 5,59 1,90 13,40 3,27 1,58 4,57 12,31 4,13 26,3023 3,72 3,72 0,66 3,72 3,72 0,66 0,00 0,00 0,0024 23,39 2,22 80,58 6,48 2,23 11,93 38,67 2,57 90,7825 12,71 3,28 28,07 5,41 2,22 10,09 15,98 8,36 17,9527 15,86 4,92 34,13 15,11 4,12 37,16 34,51 21,99 44,1228 10,01 4,13 19,57 5,29 2,79 7,84 21,33 12,08 32,3329 11,93 2,70 72,32 5,47 2,06 22,80 40,37 6,10 201,2730 10,26 1,15 19,05 6,12 0,53 10,22 32,17 32,17 44,7131 9,32 2,89 19,86 5,08 1,77 9,95 12,54 6,14 16,3632 13,69 1,26 29,97 1,67 1,12 1,69 54,10 40,95 49,7833 9,14 2,27 47,83 8,79 2,16 57,16 12,31 2,20 20,4434 21,99 9,45 42,00 9,17 4,26 12,96 22,60 25,46 13,8835 30,13 4,93 79,12 6,59 3,43 9,70 64,76 14,46 126,7836 12,48 2,71 38,19 4,80 1,79 9,11 68,24 19,94 123,72
Sum 14,50 3,33 54,58 6,31 2,29 19,58 33,79 8,60 97,2011 7,31 1,55 25,46 1,44 1,08 1,78 17,82 3,19 48,3140 16,16 0,56 71,43 0,62 0,42 0,92 92,46 1,42 163,41
Sum 11,35 0,97 51,65 1,04 0,53 1,48 43,94 2,85 106,0245 8,83 3,32 31,93 5,26 2,75 9,90 22,87 6,75 90,03
Sum 8,83 3,32 31,93 5,26 2,75 9,90 22,87 6,75 90,0337 14,84 3,64 28,44 7,35 3,15 9,10 38,69 11,71 51,3141 2,67 1,51 3,49 1,37 1,37 0,00 0,00 0,00 0,0050 19,18 8,78 32,85 12,70 6,39 17,65 31,03 13,89 50,4355 6,12 3,03 13,22 3,89 2,41 5,15 13,00 4,77 28,8064 10,62 1,00 57,78 3,60 0,75 7,76 40,79 1,68 137,1570 2,87 0,76 12,36 1,70 0,60 4,75 5,10 1,06 22,2671 4,35 1,32 11,09 3,50 1,12 8,83 5,68 1,79 13,3272 2,36 0,90 6,41 1,73 0,83 3,77 4,04 1,29 7,5273 1,46 0,44 4,95 0,68 0,44 0,92 0,71 0,64 0,6774 2,91 1,02 13,03 2,03 0,97 7,72 6,76 1,51 29,7680 2,96 1,41 5,88 2,03 1,24 2,48 4,06 1,64 6,2585 3,71 2,16 10,46 2,65 2,05 2,78 13,24 3,14 37,1690 10,35 4,60 22,55 5,36 2,95 6,20 14,53 9,80 21,3391 5,09 1,11 7,49 0,95 0,95 0,64 5,76 4,46 6,7792 3,83 1,07 9,29 2,13 0,80 4,82 7,31 2,98 15,6793 3,31 1,81 6,79 2,49 1,70 2,61 5,07 2,87 7,8395 1,79 1,79 0,00 1,79 1,79 0,00 0,00 0,00 0,00
Sum 4,76 1,22 16,25 3,19 1,15 8,51 8,41 1,62 29,2651 13,62 3,10 119,85 7,39 2,43 20,71 34,35 5,89 320,0152 10,68 4,24 38,73 8,57 3,75 15,86 14,04 5,29 36,89
Sum 11,88 3,89 82,13 8,09 3,27 17,99 23,34 5,52 218,3760 6,61 2,66 13,97 4,59 2,34 7,98 14,46 5,62 29,5461 39,31 4,53 203,73 5,35 1,60 16,99 80,61 9,25 342,0562 39,18 2,04 120,70 1,35 0,44 2,16 103,27 13,74 206,0663 9,74 2,71 23,48 7,44 2,29 17,68 15,83 4,67 30,77
Sum 13,34 2,84 88,56 5,28 2,28 11,80 44,46 6,55 228,868,16 2,05 49,94 5,06 1,83 13,03 16,60 2,97 121,53
7
8
Total
Family Firm Stand Alone
5
Group Firm
1
2
3
4
Tunneling (GRA 1900 Master Thesis) 01.09.2010
Page 61
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