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Local Fiscal Policies and Small Businesses in Florida:
A Spatial Panel Analysis
Hai (David) Guo
Associate Professor
Department of Public Administration
Steven J. Green School of International and Public Affairs
Florida International University
and
Shaoming Cheng
Associate Professor
Department of Public Administration
Steven J. Green School of International and Public Affairs
Florida International University
Abstract: This paper is intended to examine the effects of local option taxes and
local fiscal expenditures on small businesses in Florida. As a case study focusing
only on one state and on the manufacturing sector, this paper represents a pilot
study for shedding light on the linkage between small business development and
local fiscal decisions, which seem to have no obvious or direct impact on business
assistance. Spatial panel regression models are calibrated with county-level tax,
expenditure, and social and economic information for the period of 2008-2012. It
is suggested that local tax and expenditure structure and decisions affect the stock
of small manufacturing business establishments not only in their “home” counties
but also in their neighboring jurisdictions.
Keywords: Local option tax, small business, spatial panel model
This is a draft, please do not cite without permission of the authors.
2
Local Fiscal Policies and Small Businesses in Florida:
A Spatial Panel Analysis
Introduction
The geography of new and small businesses, in light of their abilities to innovate and
create new jobs, has been extensively examined in terms of their geographic distribution, their
social, economic, and policy determinants within and across jurisdictions, and their impacts on
wealth and job creation over time and across geography. Consequently, a great number of
international, national, and local policies and programs have been established for fostering small
businesses (e.g., National Conference of State Legislatures, 2012; OECD, 1998). Among the
available studies on startup determinants, various governmental assistance and incentive
programs, such as small business loans or empowerment zones, have undoubtedly been one
important focus in part because findings of such studies can be directly and rapidly translated
into policy design, implementation, and evaluation processes in a continued effort to cultivate,
attract and retain new and small businesses.
The wide use of governmental incentives and concessions for alluring existing
manufacturing firms (smokestacks chasing) has been criticized as “zero sum games” when
anticipated benefits are actually smaller than offered various governmental concessions.
However, governmental incentives and concessions for alluring entrepreneurs and prospective
business owners in hopes of fostering entrepreneurship and small business development are
equally subject to the “zero sum games” criticism (Shane, 2009). Focusing simply and
sometimes exclusively on assistance and incentive programs help produce the illusion as if
entrepreneurs and small business owners are only interested in and are affected by such programs.
They are not. On the contrary, they are first and foremost influenced by economic fundamentals
3
and by policy decisions, which are very unlikely to be made with a preconceived notion of
entrepreneurship and small business assistance or development.
The purpose of this paper therefore is to examine the effects of local fiscal policies, for
example local option taxes, which appear in most cases not to be driven by intentions to develop
entrepreneurship and small businesses, on small business establishments. A case study of Florida
and its constituent counties will be conducted and presented primarily because of tax uniformity
of a single state and great tax discrepancies across states which make inter-state analyses much
difficult. A spatial panel econometric model will be calibrated to highlight potential temporal and
spatial effects of such local taxes and expenditures. An important implication of this study to
economic and entrepreneurship development policy makers and practitioners would be that there
is an alternative, probably more important, entrepreneurship development approach focusing on
essential local tax and expenditure structures and decisions as opposed to simply creating new
and costly incentives and concessions, which would nevertheless incur unnecessary bidding wars
and would exert minimum if any impacts on new and small businesses.
Literature Review
The creation of new, often small businesses are often regarded as an individual choice
(e.g., Knight, 1921) out of the trade-off among unemployment, self-employment or employment,
depending on the relative costs and returns of the three alternatives. For instance, opening a start-
up would be an entrepreneur’s rational choice if the perceived profits from owning a new firm
exceed his/her actual or perceived wage (Evans and Jovanovic 1989; Evans and Leighton 1989).
As a result, new firm formation is generally regarded as a behavioral manifestation of
entrepreneurship (Hebert and Link 1989; Wennekers and Thurik 1999), or an organizational
extension of individual entrepreneurial actions (Gartner 1989; Lumpkin and Dess 1996).
4
Guided by the individual choice approach, entrepreneurs’ idiosyncratic individual traits
and human capital characteristics that may be conducive to entrepreneurship spirit have been
extensively examined in the prior literature. Over the years, the list of individual characteristics
has grown and includes alertness, intelligence, aggressiveness, business leadership, high risk
tolerance, internal locus of control, motivation to succeed, previous experience, and so on
(Herbert and Link, 1983; Johnson and Cathcart, 1979; Mokry, 1988; Shaver and Scott, 1991;
Wiklund and Shepherd, 2003). Individuals who possess one, a few, or a combination of such
traits are regarded to be more likely to start and own new and small businesses. Such studies on
personal characteristics often rely on survey methods, which in most cases suffer from low
response rates. Further, the statistical relation between firm creation and growth and personal
traits and intentions tends to be rather weak. It is likely that the effect of individual intentions is
moderated by environmental or contextual factors, for example, access to resources.
In addition to the possession of individual traits, geographic concentration of population
with certain human capital characteristics was another important reason for explaining spatial
patterns of new firm formation across geography. Geographic concentration of human capital in
terms of either educational attainment (Acs and Armington, 2006; Bates, 1991; Evans and
Leighton, 1990) or the percentage of adults with college degrees (Glaeser, Scheinkman, and
Shleifer, 1995) has also been indicated as an important factor influencing the geography of
newly created businesses.
Earlier studies on existence of individual traits and geographic distribution of population
with certain human capital characteristics may be able to shed light on individual choices of
opening and owning new businesses and on uneven geographic distribution of new and small
ventures. However, such line of research has not fully addressed why individuals with
5
entrepreneurship friendly traits and human capital characteristics are geographically concentrated.
This paper relies explicitly on the Tiebout competition and focuses primarily on local tax and
expenditure structure on location choices of individuals’ potentially entrepreneurs and on
location choices of new firms created by individuals’ with entrepreneurship conducive traits and
human capital characteristics.
The optimal bundle of local taxes and public goods provided by local governments,
according to the Tiebout competition model (Tiebout, 1956), has played a critical role in
deciding where they would like to live. Tiebout posits that local jurisdictions, often within a
metropolitan area, provide their residents different combinations of public goods and government
services, such as parks and recreation, by imposing upon the residents different tax rates as
prices for public goods and services provided. Because residents tend to have varied preferences
and valuations of the goods and services and have varied willingness and ability to pay, residents
are hypothesized and actually observed to be able to “vote with feet.” In another words,
individuals, driven by utility maximization, will be able to shop around and even move from one
jurisdiction to another.
The Tiebout sorting process for residential location choices may be expanded to shed
light on the location decisions of new startups. First, for new startups, their locations are often
coupled with business owners’ residential location choices in light of the pervasiveness of home-
based small businesses in the United States. With the advent and surge of affordable information
technologies and e-commerce logistics, more and more entrepreneurs are launching businesses
from their homes. It is estimated in the 2012 Global Entrepreneurship Monitor Report that in the
United States over two-thirds of all new firms started at home, and about 59% of established
businesses with active employees continue to be operated out of business owners’ homes (Kelley
6
at al., 2012). The coupling of residential and firm location choices, i.e., where to start a business
equates where to live, renders entrepreneurs to the Tiebout sorting process in deciding the co-
locations of their homes and startups.
The second reason that the Tiebout sorting process for residential location choices is
highly relevant for startup locations is because startups are often geographically proximate to
entrepreneurs’ residence. The decision of where to open and operate a business is likely
dominated, if not pre-determined, by where to live even if new firms are founded and operated
outside of entrepreneurs’ residences (Baltzopoulos and Broström, 2011). Entrepreneurs tend to
create and run their new firms locally for tapping into local knowledge of relevant business
resources (Koster and Venhorst, 2014), for utilizing local social ties and networks (Dahl and
Sorenson, 2012), and for accessing localized business financing (Kerr and Nanda, 2009). In
addition, even in the absence of the benefits derived from locational match between residential
and firm locations, Stam (2007) suggested entrepreneurs’ residential location preferences and
behaviors may supersede firm interests when entrepreneurs may actively pursue and realize their
optimal residential choices even if this may incur additional costs for the firms. Figueiredo et al.
(2002) also showed that entrepreneurs and small business owners are willing to keep their
businesses in areas where they reside at the expense of facing and absorbing higher labor costs.
The highly aligned residential and firm location decisions make the location choices of small
businesses to be highly subject to the Tiebout sorting process.
Last but not least, even when residential and business locations are separated and
assumed to be independent, firm locations are influenced by local fiscal and institutional
situations which are essential to the Tiebout theory. Besides traditional cost and demand factors
(for a review, Isard, 1956), institutional and other non-economic factors have played increasingly
7
important roles in location decisions. Personal preferences on and hence personal satisfaction
from quality of life, social environment, weather, and landscape are significant determinants of
where to open and operate a firm (Hoover, 1948; Greenhut, 1967; Richardson, 1969).
Recognizing the critical role of personal factors, Tiebout (1957) stressed that small firms
compared to their larger counterparts would more likely be influenced by these non-pecuniary
determinants. Recent literature on creative class and talent attraction and retention further
emphasizes urban, cultural, and residential amenities and their role in attracting and cultivating a
local, productive workforce (Florida, 2002; 2004). The amenity-oriented firm location approach
maintains that amenities not only attract residents but also firms, and suggests business
entrepreneurs and owners in their location decision process will evaluate certain amenities with
respect to the likely residential locations of their employees (Koster and Venhorst, 2014; Gottlieb,
1995). In this sense, selecting business locations can be united with residential locations through
the availability and provision of residential amenities which are at the core of the Tiebout sorting
theory.
This paper is therefore built upon the Tiebout sorting process for residential location
choices and further expands it to test how entrepreneurs or prospective entrepreneurs sort
alternative locations for opening and running their new businesses when facing various bundles
of local public goods and services and taxes imposed. The Tiebout sorting of business
entrepreneurs and owners are not entirely different from that for general residents. Imposed taxes
are a cost factor both for the utility maximization of general residents and for profit
maximization of new and small businesses. Prospective and current entrepreneurs will simply
open start-ups in a community that offers a level of public goods and services that suits them.
The business location decisions however can be separated from for residential location choices
8
because the optimal bundles of goods and services and associated taxes may not be the same for
business profit maximization and for household utility maximization.
Research Question and Hypotheses
This paper is intended to examine how local taxes and expenditures would affect small
business establishments, under the assumption that business owners, like residents and
households, will also be involved in Tiebout sorting processes for finding locations that provide
public goods and services suited for their needs. Four major local taxes are empirically tested in
the paper, namely, property tax, local option sales tax, local option fuel tax, and local
communications service tax. Florida state constitution authorizes local government to collect
property tax for their operation, which accounts for 73% of total county tax revenue in 2013. The
local option sales tax in Florida is part of the eight types1 of surtax. Both the potential maximum
surtax rates and actual rates vary among county governments due to different combinations of
levies in each county. In addition, authorized by the state legislature, county governments in
Florida have three types of fuel tax levies that add up to 12 cents in total, but the actual rates vary
as some counties choose not to levy or not to levy to the maximum rate. County governments in
Florida can choose to levy local communication service tax by ordinance and set the rate at their
discretion (EDR, 2014). The total revenue yielded by these taxes takes up to 97% of the total tax
revenue of all counties in Florida in 20132. The four types of taxes selected are all tightly related
to tax authority of local jurisdictions but are not traditionally used for small business attraction
and development nor examined for their effects on locations of small business establishments. A
case study of Florida will be presented in the paper in part to maintain tax uniformity and
1 The eight surtaxes include charter county and regional transportation system surtax, local government
infrastructure surtax, small county surtax, indigent care/trauma center surtaxes, county public hospital surtax, voter-
approved indigent care surtax, emergency fire rescue services and facilities surtax, and school capital outlay surtax. 2 Authors’ calculation is based on the data provided by the Florida Department of Financial Services Bureau of
Local Government.
9
comparability across jurisdictions. In addition, this paper will only examine the manufacturing
sector (NAICS 31-33) and will be expanded in the future to include all industries for highlight
potential sectoral differences.
Three hypotheses will be tested in this paper, and they are:
Hypothesis 1: Higher millage rate of local property tax would hinder small business
creation.
Hypothesis 2: Higher local option sales tax rates, local option fuel tax rate, and
communication services tax rate hinder the creation of small business establishments.
Hypothesis 3: Higher local expenditure on physical environment, economic environment
and transportation encourage the creation of small business establishments.
Data and Variables
The areal units for the examination are Florida’s 66 individual counties3. The county-
level analysis is superior to most of prior studies because they were carried out at a highly
aggregated geographic level, for example, individual states (e.g., Carree 2002; Acs and
Armington 2006) or labor market areas (LMAs) (e.g., Armington and Acs 2002; Lee et al. 2004;
Reynolds et al. 1995). The earlier approaches may not only mask intra-unit variations, but also is
susceptible to modifiable areal unit problem (MAUP) bias when underlying economic relations
do not match with the boundaries of administratively determined states or other aggregated
geographic units.
For each of the counties, small business numbers are standardized by the size of the
county’s total labor force, in consistent with the labor force approach established in Audretsch
and Fritsch (1994). Information of small businesses in all Florida’s counties are obtained from
3 Jacksonville-Dual County is excluded from the analysis, because it is a consolidated city-county government.
10
the County of Business Pattern of the U.S Census Bureau. The publicly available information
measures primarily the stock of small businesses categorized by their numbers of employees, and
the dependent variable in spatial regressions is the stock of small businesses with 1-4 employees
in 2007-2012. It is important to note that the publicly available information based on stock of
businesses cannot provide accurate numbers of newly created firms over years, because the net
changes of the stocks of firms over years are influenced jointly by firm births and deaths during
the periods. In addition, small businesses are not synonymous with entrepreneurship because all
not small, new, and young businesses are driven by entrepreneurial spirit, but generally small
businesses have been widely used as an indicator for entrepreneurship.
Key individual variables consist of four types of local taxes, namely, property tax, local
option sales tax, local option fuel tax, and local option communications tax. In addition,
individual counties’ per capita expenditures in transportation, physical environment, and
economic environment are also collected and used in the regression analyses for controlling for
different usages of tax revenues across local jurisdictions. Both the local tax and expenditure
information is collected from Florida Department of Financial Services Bureau of Local
Government. Furthermore, commonly agreed determinants for small businesses are also included
in the regression models, and they are average employment per establishment for all industries,
share of manufacturing ventures in all establishments in a county, annual per capita income
growth rate, annual population growth rate, share of proprietors in labor force, and annual
population growth rate. Table 1 and 2 present detailed descriptions, data sources, and summary
for all the independent variables, and Table 3 presents a correlation matrix of all independent
variables used and no serious multicollinearity concern is suggested from the correlation matrix.
[Table 1, 2, 3 about here]
11
Spatial Panel Model
The longitudinal data of 66 counties ranging from 2008 to 2012 provide richer
information in examining how local government tax and expenditure affect small business
establishments. Moreover, the analysis also considers spatial relationship among counties. Not
only do the business establishments exhibit spatial dependence, local governments finance data
often has spatial autocorrelation, which is often neglected, Brueckner (2003) demonstrates the
necessity of spatial economic methods in the study of local governments’ public finance. For
example, in the quantile map shown in Figure 1, manufacturing small businesses in 2012 with 1-
4 employees normalized by total labor force are not evenly distributed, and instead, they are
geographically concentrated in the South Florida as well as both coastal lines. In addition, in the
quantile maps shown in Figure 2-5, the four major local taxes also suggest various degrees of
spatial correlation.
Traditionally, spatial econometric models consider the spatial dependence occurs either
in the dependent variable or the error term, which respectively lead to spatial autoregressive
(SAR) model and spatial error model (SEM). The SAR model is used under circumstance that
spatial autocorrelation exists in dependent variable. The SEM model considers the spatial
dependence exists in the error term. The OLS estimation of SEM model is consistent but no
longer efficient, which will lead to incorrect inference. Lesage and Pace (2009) advocates the
spatial Durbin model, which includes spatial lags of independent variables, because it can reduce
the omitted variable bias. The following equation represents different aforementioned spatial
models, when certain parameters are set to zero.
𝑌𝑖𝑡 = 𝛿 ∑ 𝑊𝑖𝑗
N
𝑗=1
𝑦𝑗𝑡 + 𝑥𝑖𝑡𝛽 + ∑ 𝑊𝑖𝑗
𝑁
𝑗=1
𝑥𝑖𝑗𝑡𝛾 + 𝜇𝑖 + 𝜆𝑡 + 𝑢𝑖𝑡
12
𝑢𝑖𝑡 = 𝜌 ∑ 𝑊𝑖𝑗
𝑁
𝑗=1
𝑢𝑖𝑡 + 휀𝑖𝑡
where i and j are the index for cross-sectional units and t is the time unit. Yit is the dependent
variable, i.e., stock of small business establishments in county i in year t. xit contains a matrix of
explanatory variables listed in Table 1. The error term 𝜇𝑖 and 𝜆𝑡 represent cross-section invariant
and time invariant unobserved effect. The inclusion of the spatial weighting matrix—W makes it
a spatial panel model. The weighting matrix W “expresses for each observation (row) those
locations (columns) that belong to its neighborhood set as nonzero elements” (Anselin and Bera,
1998, p. 243). As shown in the equation 1, the position of the weighting matrix indicates
different spatial econometric models. If the model only contains spatially lagged dependent
variable, i.e., 𝛾 and 𝜌 are set to zero, equation 1 represents for the SAR model. If the spatial
autoregressive process is in the error term, i.e., 𝛿 and 𝛾 are sent to zero, it stands for the SEM
model. With both spatially lagged dependent variable and explanatory variables on the right-
hand side of the equation (𝜌 = 0), the equation is for the SDM model.
In order to select the appropriate spatial model to conduct the analysis, we follow
Elhorst’s (2010) approach that consists of two steps—specific to general and general to specific.
Non-spatial model is estimated first and a Lagrange Multiplier (LM) test is performed to select
between a SAR and a SEM model. As long as the LM test indicates the existence of spatial
correlations, the general to specific step is performed. In the second step and from an opposite
direction, a SDM model is estimated and a Likelihood Ratio (LR) test will indicate whether the
SDM model can be simplified as a SAR or a SEM model. If the LM test of the first step supports
SAR model and the LR test, from an opposite direction, after the SDM confirms this (it can
reduced to SAR model), a SAR model is deemed appropriate. The same logic applies to the
13
selection of SEM model. However, if the LR test after the SDM model estimation shows that the
model cannot be simplified, or the test result contradicts with the previous LM test, the SDM
model will be preferred, because the SDM model yields consistent estimation4 regardless of the
spatial data generation process in the equation 1. In addition, all three models include cross-
sectional and time fixed effect (𝜇𝑖 𝑎𝑛𝑑 𝜆𝑡), in this case county and year fixed effect. The LR test
is utilized to test these fixed effects.
Empirical Findings
Table 4 presents the estimation results of the one-way fixed effect model that does not
consider the spatial autocorrelation. The LR test for joint significance of county fixed effects and
year fixed effect indicate the null hypothesis—𝐻𝑜:: 𝑢1, 𝑢12, … , 𝑢𝑛, = 0 should be rejected (LR:
458.94, df 66, P-value<0.0001), however the null hypothesis—𝐻𝑜:: 𝜆1, 𝜆12, … , 𝜆𝑛, = 0 cannot be
rejected (LR: 8.78, df 5, P-value= 0.12). Therefore, only county fixed effect is included in the
model.
[Table 4 about here]
In the one way fixed effect model, none of the variables in the category of tax rates
exhibits a statistically significant effect on the stock of small business establishments. The local
government’s per capita expenditure on economic development shows a significant and positive
effect on the small business establishments, which means that if a county government spends
more per capita on programs such as employment opportunity and development, industry
development, veteran’s services, and housing and urban development, it will create a business
friendly environment that attracts more entrepreneurship activities—more small business
establishments. All the six traditional factors have expected signs, among which three of them
4 Please refer to Elhorst (2010) for detailed discussion of the test procedure for spatial panel models.
14
are statistically significant, namely industry concentration, average establishment size, and
unemployment rate. Consistent with the earlier literature, the stock of small business
establishments tend to increase with higher industry concentration, smaller average establish size,
and higher unemployment rate. It appears that the non-spatial one-way fixed effect model only
explains 35 percent of the variations of the dependent variable.
Table 4 presents the estimation results of SDM. The LM tests after the non-spatial one-
way fixed effect model does not clearly point to either SAR or SEM model.5 However, as
suggested by Elhorst (2010), the general to specific approach is needed for the spatial model
selection. The LR test after the SDM model estimation indicates that the SDM model cannot be
simplified to neither SAR nor SEM model. Therefore, when suggestions from both directions are
inconsistent, the SDM model is selected, because SDM will produce unbiased estimation
regardless of the data generation process implied by equation 1 (Lesage & Pace, 2009). The
spatial lagged dependent variable and explanatory variables are represented by the multiplication
of a contiguity-weighing matrix for the counties in Florida.
[Table 4 about here]
The R-square of the calibrated SDM model is 0.86 due to the cross-sectional fixed effect
accounting for much of the variation. Elhorst (2010a) suggest using the difference between the
R-square and the squared correlation coefficient between actual and fitted value (corr2) to
indicate the proportion of variations that are explained by fixed effect. In this case, the corr2
equals to 0.40, which indicate that the fixed effects explain 46% of the variation of the dependent
variable.
5 LM test no spatial lag= 5.714, P-value 0.017; LM test no spatial error=3.547, P-value 0.06. Both null hypotheses
that there is no spatial lag and no spatial error are rejected; the robust LM tests do not yield clear indication as well.
Robust LM test no spatial lag=2.475 P-value 0.116; Robust LM test no spatial error=0.308 P-value 0.579.
15
LeSage and Pace (2009, p.74) indicates that the point estimates of the spatial models do
not yield proper marginal effects. In order to better capture the marginal effect and spatial spill-
over effect in a spatial model, they suggest a partial derivative interpretation for cross-sectional
cases. Elhorst (2010) extends this approach to the panel spatial models.6 The partial derivatives
of the dependent variable with respect to an explanatory variable at a time point consist of a
matrix with the same size of the weight matrix—W. This approach decomposes a total marginal
effect into a direct effect and an indirect effect. The direct effect is the average partial derivatives
of the diagonal elements of the matrix, which indicate how the change of an explanatory variable
in a county affects the dependent variable in the same county. The indirect effect is the average
derivative of the off-diagonal elements in the matrix and captures the spillover effect. In other
words, the indirect effect indicates how the change of an explanatory variable in a county affects,
on average, the dependent variables in neighboring counties. Both direct and indirect effects are
calculated and presented in Table 5.
[Table 5 about here]
After considering the spatial spillover effect, the estimation of the SDM model indicates
that county governments’ tax and expenditure policies play an important role in the development
of small business establishments. The property tax millage rate does not exhibit a statistically
significant direct effect on the small business establishments, but it has an indirect, spillover
effect, which is positive and significant at 10 percent level. This means that if the millage rate is
higher in a county, the stock of small business establishments will increase in its neighboring
counties, as if they are “pushed” into the nearby counties because of the “home” county’s higher
property tax rate. This implies that small business owners do take property tax burden into their
6 Please refer to Elhorst (2010, p.10) for detailed discussion and formulas.
16
consideration, and they are more likely to choose a jurisdiction for their new business
establishments with relatively low(er) millage rate. What matters here is not just the absolute
millage rate in a jurisdiction but how it is compared to neighboring counties.
The surtax rate also exhibits a significant indirect, spillover effect, but the negative
direction is against the expectation. It indicates that if a county imposes a higher sales surtax rate,
the stock small business establishments decreases in its neighboring jurisdictions. One possible
explanation for this unexpected result is that the local option sales surtax in Florida are levied by
county governments for different purposes, which include charter county transit system surtax,
local government infrastructure surtax, small county surtax, indigent care/trauma center surtaxes,
public hospital surtax, voter-approved indigent care surtax, and school capital outlay surtax.
Particularly, 31 counties are eligible to level small county surtax and 23 of them choose to do so,
which is the most frequently used local option sales surtax. This yield a possible explanation of
the negative indirect effect of the surtax rate: the counties with higher surtax rates tend to be
small counties, but business owners tend to choose bigger counties to establish their businesses.
The economic environment expenditure remains statistically significant. Both the direct
and indirect effects are positive, suggesting that if a county government spends more per capita
to improve the economic environment, the stock of small business establishments increases not
only in its own jurisdiction but also in the neighboring jurisdictions. In other words, the more the
economic environment expenditure in both its own jurisdiction and its neighboring jurisdictions
are, the more small business establishments increase. The business owners will compare the tax
rate among counties and prefer the one with lower rate. The economic environment expenditure
exhibits the spillover effect that exerts positive externality.
17
The traditional factors remain the expected signs after controlling the spatial
autocorrelation. Industry concentration has both positive direct and indirect effect, which
demonstrates the importance of industry concentration or specialization to small business
establishments. Average establishment size only exhibits negative direct effect at 10 percent
level. The unemployment rate has a positive direct effect and a negative sign of the indirect
effect though not significant. It suggests that the higher unemployment rate in a jurisdiction, the
more small business establishments in a jurisdiction. The effect of income growth exhibits the
same pattern as unemployment rate. The jurisdiction with higher income growth rate attracts
more small business establishments.
Conclusions
Entrepreneurship and small business establishment have played an essential role in the
economic development. Cultivating new business creation and high growth ventures have then
been an important task and goal for policy makers at various levels. However, the “zero sum
games” criticism against traditional smokestacks chasing economic development strategy not
only has given rise to the home grown entrepreneurship-led economic development paradigm,
but also has reminded us that the “zero sum games” criticism may be applied to excessive
governmental incentives intended for small businesses. As governmental incentives offered by
different jurisdictions are being cancelled out, the economic and policy fundamentals of a
jurisdiction are really matter to prospective entrepreneurs and business owners.
This research directly examines how small businesses would respond to local fiscal
policies, both taxes and expenditures, which generally are not made for entrepreneurship and
small business development. It expands the traditional Tiebout model, which focuses primarily
on residential location decisions, to explain how entrepreneurs would respond to taxes imposed
18
and public goods provided and how they would decide on the business locations that would
maximize their profits. It is hypothesized that a local jurisdiction’s fundamental fiscal
environment created by different bundle of taxes and expenditures affect the small business
owners’ decisions of their business locations. A case study on Florida counties and very small
manufacturing businesses (1-4 employees) is conducted and proper spatial panel econometric
model is calibrated in light of great spatial correlation. In accordance with Elhorst’s (2010)
procedure of selecting spatial models, the SDM model is supported after series of tests and yield
estimation results with least omitted variable bias. The SDM model results show that millage rate
has indirect, spillover effect on small business establishment, which demonstrates that small
business owners care about the property tax burden compared to neighboring counties. The per
capita expenditure of economic development programs exhibits spillover effect, which suggests
that small business owners prefer to locating their businesses in a county with higher expenditure
on economic development which surrounded by counties that have higher economic
development expenditure. This research shows that the overall fiscal environment to some extent
affects small business establishments.
This study uses data from only one state, which may limit its generalizability; however
one state data allows us to control state-specific heterogeneity and to take advantage of tax
uniformity. This study only has five-year data that cover the cycle of the recent Great Recession.
A longer panel may be more informative in the way that local governments’ long-term fiscal
environment can be captured. The future study may also consider small business establishments
in other sectors and breakdown of local option sales surtax.
19
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Table 1: Variable Descriptions and Sources
Variables Descriptions Expected
signs
Sources
Dependent variable
Small businesses Numbers of manufacturing small ventures (1-4 employees)
normalized by total labor force
County Business
Patten
Independent variables
Tax Rates
Florida Department
of Financial
Services Bureau of
Local Government
Millage rate Property millage tax rate –
Fuel tax rate Local motor fuel option tax –
Communication tax rate Local communication services tax –
Sales surtax rate Local option sales tax rate –
Expenditures
Transportation exp Transportation expenditure per capita +
Physical environment exp Physical environment expenditure per capita +
Economic environment exp Economic environment expenditure per capita +
Traditional factors
Industry concentration Share of manufacturing ventures in all establishments in a
county
+
U.S. Census Bureau Avg. establishment size Average employment per establishment for all industries –
Unemployment rate Unemployment rate +
Population growth Annual population growth rate
Income growth Annual per capita income growth rate +
Share of proprietors Share of proprietors in labor force + U.S. Bureau of
Economic Analysis
22
Table 2: Descriptive Statistics (N=330)
Mean
Std.
Dev. Min Max
Dependent Variable
Small businesses 47.80 14.59 0.00 80.77
Tax Rates
Millage rate 6.52 2.07 0.20 10.00
Fuel tax rate 49.93 2.57 44.90 54.60
Communication services tax rate 2.57 1.55 0.29 7.38
Surtax rate 0.73 0.45 0.00 1.50
Expenditures
Transportation expenditure 236.31 164.72 57.11 1718.20
Physical environment expenditure 178.28 -163.02 92.82 1278.45
Economic environment expenditure 57.49 -60.97 10.25 364.75
Traditional factors
Industry concentration 0.03 0.01 0.00 0.09
Average establishment size 10.67 2.47 6.13 19.74
Proprietors % 0.26 0.08 0.11 0.54
Unemployment rate 9.17 2.30 4.00 15.10
Population growth rate 0.01 0.01 -0.05 0.05
Income growth rate 0.01 0.04 -0.15 0.13
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Table 3: Correlation Table of Independent Variables
M F CST S TE PEE EEE IC AES P% Unem PGR IGR
Millage (M) 1.000
Fuel tax rate (F) -0.175 1.000
Communication service tax rate (CST) -0.359 0.254 1.000
Surtax rate (S) 0.456 -0.363 -0.221 1.000
Transportation expenditure (TE) 0.050 -0.077 -0.177 0.076 1.000
Physical environment exp. (PEE) -0.380 0.286 0.078 -0.326 0.220 1.000
Economic environment exp. (EEE) -0.278 -0.091 -0.058 0.009 0.312 0.258 1.000
Industry concentration (IC) 0.440 -0.121 -0.137 0.181 0.045 -0.153 -0.179 1.000
Average establishment size (AES) -0.102 0.090 0.406 -0.157 -0.232 -0.065 0.041 -0.061 1.000
Proprietors % (P%) 0.181 -0.081 -0.241 0.141 0.261 0.074 0.011 0.230 -0.633 1.000
Unemployment rate (Unem) -0.043 0.071 0.010 -0.096 -0.101 0.058 -0.222 0.015 -0.010 -0.022 1.000
Population growth rate (PGR) -0.215 -0.001 0.129 -0.165 0.110 0.037 0.090 -0.076 0.153 -0.189 -0.225 1.000
Income growth rate (IGR) 0.099 -0.059 -0.090 0.048 -0.009 -0.123 0.017 -0.014 -0.012 -0.009 0.084 -0.060 1.000
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Table 4: Non-spatial and Spatial Model Results
Dependent Variable: Number of Small Businesses Normalized by Total Estalishments
Non-Spatial OLS Spatial Durbin Model
Coefficients S.E. Coefficients S.E.
Millage -0.293 0.830 -0.533 0.928
Fuel tax rate -0.241 0.587 -0.013 0.667
Communication service tax rate 0.694 1.055 1.066 1.159
Sales surtax rate -4.933 4.427 -3.595 4.775
Transportation expenditure 0.002 0.003 0.004 0.004
Physical environment expenditure 0.003 0.005 0.005 0.006
Economic environment expenditure 0.047*** 0.014 0.054*** 0.001
Industry concentration 984.445*** 92.552 1031.467*** 102.3
Average establishment size -1.214* 0.705 -1.399* 0.797
Proprietors % -21.425 29.153 -23.348 36.799
Unemployment rate 1.205*** 0.314 1.812* 1.007
Population growth rate -7.625 36.389 -1.374 41.089
Income growth rate 20.982 8.962 34.621** 14.992
W*Dependent 0.063 0.068
W*Millage 2.498* 1.503
W*Fuel tax rate -0.420 1.185
W*Communication service tax rate -1.021 1.927
W*Sales surtax rate -15.099* 8.684
W*Transportation expenditure 0.000 0.006
W*Physical environment expenditure 0.004 0.012
W*Economic environment expenditure 0.070** 0.030
W*Industry concentration 511.098** 213.100
W*Average establishment size -0.479 1.171
W*Proprietors % 60.191 48.969
W*Unemployment rate -0.574 1.095
W*Population growth rate 32.231 64.599
W*Income growth rate -24.721 18.073
Summary Statistics
No. of observations 330 330
R-square 0.35 0.86
Log likelihood -1041.9
LM spatial lag 5.714**
Robust LM spatial lag 2.475
LM spatial error 3.547*
Robust LM spatial error 0.3076
Wald spatial lag 18.34
LR spatial lag 21.52*
Wald spatial error 20.88*
LR spatial error 24.89**
25
Table 5. Spatial Durbin Model (SDM) Decomposition Results
Dependent Variable: Number of Small Businesses Normalized by Total Establishments
Direct Effect Indirect Effect Total Effect
Tax rates
Millage
-0.524
(0.948)
2.66*
(1.597)
2.136
(1.904)
Fuel tax rate 0.012
(0.673)
-0.469
(1.221)
-0.456
(1.260)
Communication
service tax rate
1.090
(1.142)
-0.945
(1.944)
0.145
(1.260)
Surtax rate -3.864
(4.806)
-15.688*
(8.900)
-19.551*
(10.32)
Expenditures
Transportation expenditure
0.004
(0.004)
0.00002
(0.007)
0.004
(0.008)
Physical environment
expenditure
0.005
(0.006)
0.004
(0.012)
0.009
(0.014)
Economic environment
expenditure
0.056***
(0.016)
0.077**
(0.03)
0.133***
(0.036)
Traditional factors
Industry concentration
1042.58***
(103.939)
606.16***
(215.914)
1648.735***
(252.542)
Average establishment size -1.414*
(0.756)
-0.545
(1.212)
-1.960
(1.395)
Proprietors % -22.964
(36.12)
59.743
(48.83)
36.779
(51.360)
Unemployment rate 1.799*
(0.983)
-0.457
(1.063)
1.342**
(0.573)
Population growth rate -0.270
(39.437)
38.640
(65.338)
38.370
(69.265)
Income growth rate 33.901**
(14.263)
-23.394
(18.222)
10.507
(13.046)
R-Square: 0.8332, Corr2: 0.2149
Log Likelihood: -1032.28
26
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