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Economic growth or social expenditure: what is more effective in decreasing poverty and income inequality in the EU – a panel VAR approach
Ivana Velkovska*
Borce Trenovski*
Borce Trenovski
Affiliation: Ss. Cyril and Methodius University Skopje, Skopje, Republic of North Macedonia
0000-0002-3630-9486
Article | Year: 2023 | Pages: 111 - 142 | Volume: 47 | Issue: 1 Received: June 1, 2022 | Accepted: November 21 | Published online: March 6, 2023
|
FULL ARTICLE
FIGURES & DATA
REFERENCES
CROSSMARK POLICY
METRICS
LICENCING
PDF
|
Study
|
Period
|
States
|
Methodology
|
Results
|
|
Dafermos
and Papatheodorou, 2010
|
1994-2007
|
14 EU
members
|
Panel
model
|
Social
expenditure significantly decreases poverty and inequality
|
|
Nelson,
2013
|
1990-2008
|
28 EU
members
|
Panel
model
|
European
social protection inadequate for redistribution
|
|
Cyrek,
2019
|
2007-2013
|
All
EU members
|
Panel
model
|
Effectiveness
of social protection declined during euro zone crisis
|
|
Andrés-Sánchez, Belzunegui-Eraso and Valls-Fonayet,
2020
|
2011-2015
|
28 EU
members
|
Panel
model
|
The
southern member states are less effective in tackling poverty and inequality
|
|
Molina-Morales, Amate-Fortes and Guarnido-Rueda, 2014
|
1996-2006
|
27 EU
members
|
Panel
model
|
The
social protection expenditure is dependent on the political will of the
country
|
|
Mansi
et al, 2020
|
2009
-2018
|
EU
and WB
|
Multiple
regression analysis using the fixed effect model
|
Economic
growth does have a significant impact on reducing poverty
|
|
Bosco
and Poggi, 2019
|
2008-2011
|
26 EU countries
|
Dynamic three-level model
|
The risk of poverty is negatively related to the size of the
structural social expenditure
|
|
Da
Silva and Andrade, 2016
|
2003-
2013
|
EU-27
|
Nonparametric
panel data model
|
Results
show different effectiveness for different countries and for different levels
of social transfers which above a saturation point result in inefficiency.
|
|
Sanchez
and Perez-Corral, 2018
|
2005-2014
|
28 EU
members
|
Dynamic panel models
|
The
results show the existence of a negative correlation between public social
expenditure as a whole and income inequality.
|
|
Hidalgo-Hidalgo
and Iturbe-Ormaetxe, 2018
|
2005
|
17 EU
members
|
Cross-section
analysis
|
Public
expenditure in primary education has a strong effect on raising individuals
above the poverty line
|
|
Leventi,
Sutherland and Tasseva, 2018
|
2013
|
7 EU
members
|
Microsimulation models
|
Most
cost-effectively in most countries are increasing child benefits and social
assistance
|
|
Doina
and Viorica, 2017
|
2015
|
27 EU members
|
Regression
analysis
|
The
expenditure made by the state have a significant influence on poverty
reduction. The greatest influence is made by expenses for social protection
and they are followed by the health care, business and education-related
expenses
|
|
Cammeraat,
2020
|
1990-2015
|
22 EU and OECD members
|
2SLS
regression models
|
Social
expenditure reduces poverty and inequality without being harmful for GDP
growth. Targeted schemes are most effective in reducing poverty, while social
expenditure types with a universal character are more effective in reducing
inequality.
|
|
Antonelli
& De Bonis, 2017
|
2013
|
22 EU members
|
Cross
section analysis
|
States
that have the highest levels of social expenditure are also the ones with
highest effectiveness of social expenditure
|
|
Caminada
and Goudswaard, 2010
|
1990-2007
|
OECD and EU-15
|
Cross
country analysis
|
If
pensions are treated as transfers, we find a strong relationship between
levels of social spending and antipoverty effects of social transfers and
taxes. Social spending seems to be an important determinant of a country’s
poverty outcome. Each percentage point of social expenditure alleviates
poverty in both EU15 and non-EU15 countries by 0.7 percentage point on
average
|
|
Caminada
and Goudswaard, 2009
|
2005, 2006
|
OECD and EU-15
|
Cross
country analysis
|
They do not find a strong relationship between levels of social Spending
and antipoverty effects of social transfers and taxes. At the program level,
family programs and child support alleviate poverty to a large extent.
|
|
Fonayet,
Eraso and Sánchez, 2020
|
2007-2015
|
EU
|
Panel
model
|
Correlation between social expenditure and the levels of poverty is not
strong
|
|
Bayar
& Sasmaz, 2018
|
2005-2014
|
Selected CE and EU countries
|
Causality
analysis
|
There is no causal interaction between social expenditures and poverty in
this sample
|
Source: Eurostat database (Accessed 1 May 2022).
Source: Eurostat database (Accessed 1 May 2022) and authors’ calculations.
Source: Eurostat database (Accessed 1 May 2022) and authors’ calculations.
Source: Eurostat database (Accessed 1 May 2022) and authors’ calculations.
|
Variable
|
Obs
|
Mean
|
Std. dev.
|
Min
|
Max
|
|
SPE
|
300
|
7,426
|
5,331.1
|
879.2
|
22,329.1
|
|
PVR
|
300
|
23
|
7.4
|
10.7
|
49.3
|
|
INQ
|
300
|
29
|
3.9
|
20.9
|
40.8
|
|
GDP
|
300
|
107
|
70
|
20.3
|
336
|
Source: Authors’ calculation using STATA 13.
|
SPE
|
PVR
|
INQ
|
GDP
|
|
SPE
|
1
|
/
|
/
|
/
|
|
PVR
|
-0.59
|
1
|
/
|
/
|
|
INQ
|
-0.44
|
0.76
|
1
|
/
|
|
GDP
|
0.94
|
-0.56
|
-0.41
|
1
|
Source: Authors’ calculation using STATA 13.
Source: Authors’ calculation using STATA 13.
Source: Authors’ calculation using STATA 13.
Source: Authors’ calculation using STATA 13.
Source: Authors’ calculation using STATA 13.
|
Panel
vector autoregression
|
|
GMM
Estimation
|
|
Initial
weight matrix: Identity
|
|
GMM
weight matrix: Robust
|
|
No.
of obs. = 180
|
|
No.
of panels = 30
|
|
Ave.
no. of T = 6.000
|
|
Variables
|
Coef.
|
Std. err.
|
z
|
P>|z|
|
[95% Conf. Interval]
|
|
dlogSPE
|
|
dlogSPE
L1
|
-0.22
|
0.24
|
-0.93
|
0.35
|
-0.69
|
0.24
|
|
dlogSPE
L2
|
-0.20
|
0.15
|
-1.29
|
0.19
|
-0.50
|
0.10
|
|
dPVR
L1
|
0.00
|
0.00
|
1.97
|
0.04
|
0.00
|
0.01
|
|
dPVR
L2
|
0.00
|
0.00
|
0.56
|
0.57
|
-0.00
|
0.00
|
|
dINQ
L1
|
0.00
|
0.00
|
-1.21
|
0.22
|
-0.01
|
0.00
|
|
dINQ
L2
|
0.00
|
0.00
|
-1.56
|
0.11
|
-0.01
|
0.00
|
|
dlogGDP
L1
|
0.09
|
0.17
|
0.54
|
0.59
|
-0.24
|
0.42
|
|
dlogGDP
L2
|
0.07
|
0.10
|
0.65
|
0.51
|
-0.14
|
0.28
|
|
dPVR
|
|
dlogSPE
L1
|
-3.49
|
8.51
|
-0.41
|
0.68
|
-20.19
|
13.20
|
|
dlogSPE
L2
|
-0.18
|
4.66
|
-0.04
|
0.96
|
-9.33
|
8.96
|
|
dPVR
L1
|
0.05
|
0.19
|
0.29
|
0.77
|
-0.32
|
0.44
|
|
dPVR
L2
|
0.02
|
0.09
|
0.22
|
0.82
|
-0.16
|
0.20
|
|
dINQ
L1
|
0.01
|
0.24
|
0.07
|
0.94
|
-0.46
|
0.50
|
|
dINQ
L2
|
0.16
|
0.15
|
1.09
|
0.27
|
-0.13
|
0.47
|
|
dlogGDP
L1
|
-5.88
|
4.02
|
-1.46
|
0.14
|
-13.77
|
2.01
|
|
dlogGDP
L2
|
-7.87
|
3.01
|
-2.61
|
0.00
|
-13.78
|
-1.97
|
|
dINQ
|
|
dlogSPE
L1
|
-5.99
|
5.90
|
-1.01
|
0.31
|
-17.56
|
5.58
|
|
dlogSPE
L2
|
-5.90
|
4.42
|
-1.33
|
0.18
|
-14.58
|
2.77
|
|
dPVR
L1
|
0.19
|
0.14
|
1.38
|
0.16
|
-0.08
|
0.47
|
|
dPVR
L2
|
0.12
|
0.07
|
1.70
|
0.08
|
-0.01
|
0.26
|
|
dINQ
L1
|
-0.17
|
0.16
|
-1.07
|
0.28
|
-0.50
|
0.14
|
|
dINQ
L2
|
-0.03
|
0.15
|
-0.24
|
0.81
|
-0.33
|
0.26
|
|
dlogGDP
L1
|
-2.18
|
3.18
|
-0.68
|
0.49
|
-8.42
|
4.06
|
|
dlogGDP
L2
|
8.04
|
2.57
|
3.12
|
0.00
|
2.99
|
13.09
|
|
dlogGDP
|
|
dlogSPE
L1
|
0.01
|
0.26
|
0.07
|
0.94
|
-0.50
|
0.54
|
|
dlogSPE
L2
|
-0.06
|
0.14
|
-0.46
|
0.64
|
-0.35
|
0.21
|
|
dPVR
L1
|
0.00
|
0.00
|
0.45
|
0.65
|
-0.00
|
0.00
|
|
dPVR
L2
|
0.00
|
0.00
|
1.34
|
0.18
|
-0.00
|
0.00
|
|
dINQ
L1
|
-0.00
|
0.00
|
-0.33
|
0.74
|
-0.01
|
0.00
|
|
dINQ
L2
|
-0.00
|
0.00
|
-1.08
|
0.28
|
-0.01
|
0.00
|
|
dlogGDP
L1
|
0.32
|
0.22
|
1.42
|
0.15
|
-0.12
|
0.76
|
|
dlogGDP
L2
|
0.01
|
0.08
|
0.22
|
0.82
|
-0.14
|
0.18
|
Source: Authors’ calculation using STATA 13.
|
Panel VAR-Granger causality Wald test
Ho: Excluded variable does not Granger-cause
Equation variable
Ha: Excluded variable Granger-causes Equation
variable
|
|
Equation \ Excluded
|
chi2
|
df
|
Prob > chi2
|
|
dlogSPE
|
|
dPVR
|
4.03
|
2
|
0.13
|
|
dINQ
|
2.45
|
2
|
0.29
|
|
dlogGDP
|
0.60
|
2
|
0.73
|
|
All
|
6.98
|
6
|
0.32
|
|
dPVR
|
|
dlogSPE
|
0.37
|
2
|
0.83
|
|
dINQ
|
1.66
|
2
|
0.43
|
|
dlogGDP
|
8.05
|
2
|
0.01
|
|
All
|
16.64
|
6
|
0.01
|
|
dINQ
|
|
dlogSPE
|
1.77
|
2
|
0.41
|
|
dPVR
|
3.33
|
2
|
0.18
|
|
dlogGDP
|
10.60
|
2
|
0.00
|
|
All
|
13.73
|
6
|
0.03
|
|
dlogGDP
|
|
dlogSPE
|
0.54
|
2
|
0.76
|
|
dPVR
|
1.79
|
2
|
0.40
|
|
dINQ
|
1.40
|
2
|
0.49
|
|
All
|
2.22
|
6
|
0.89
|
Source: Authors’ calculation using STATA 13.
|
GMM Estimation
|
|
Initial weight matrix: Identity
|
|
GMM weight matrix: Robust
|
|
No. of obs. = 180
|
|
No. of panels= 30
|
|
Ave. no. of T = 6.000
|
|
Variables
|
Coef.
|
Std. Err.
|
z
|
P>|z|
|
[95% Conf. Interval]
|
|
dlogSPE
|
|
dlogSPE L1
|
-0.29
|
0.28
|
-1.06
|
0.29
|
-0.85
|
0.25
|
|
dlogSPE L2
|
-0.23
|
0.18
|
-1.28
|
0.20
|
-0.58
|
0.12
|
|
dPVR L1
|
0.00
|
0.00
|
1.76
|
0.07
|
0.00
|
0.01
|
|
dPVR L2
|
0.00
|
0.00
|
0.21
|
0.83
|
0.00
|
0.00
|
|
dlogGDP L1
|
0.13
|
0.17
|
0.74
|
0.46
|
-0.21
|
0.47
|
|
dlogGDP L2
|
0.12
|
0.10
|
1.14
|
0.25
|
-0.08
|
0.34
|
|
dPVR
|
|
dlogSPE L1
|
-2.59
|
9.71
|
-0.27
|
0.78
|
-21.62
|
6.43
|
|
dlogSPE L2
|
0.17
|
4.86
|
0.04
|
0.97
|
-9.35
|
9.69
|
|
dPVR L1
|
0.05
|
0.18
|
0.30
|
0.76
|
-.313
|
0.42
|
|
dPVR L2
|
0.03
|
0.08
|
0.46
|
0.64
|
-0.12
|
0.19
|
|
dlogGDP L1
|
-6.37
|
3.76
|
-1.69
|
0.09
|
-13.75
|
0.99
|
|
dlogGDP L2
|
-8.54
|
2.84
|
-3.00
|
0.00
|
-14.13
|
-2.96
|
|
dlogGDP
|
|
dlogSPE L1
|
0.00
|
0.28
|
-0.02
|
0.98
|
-0.57
|
0.55
|
|
dlogSPE L2
|
-0.07
|
0.15
|
-0.51
|
0.60
|
-0.37
|
0.21
|
|
dPVR L1
|
0.00
|
0.00
|
0.45
|
0.65
|
0.00
|
0.00
|
|
dPVR L2
|
0.00
|
0.00
|
1.22
|
0.22
|
0.00
|
0.00
|
|
dlogGDP L1
|
0.33
|
0.22
|
1.51
|
0.13
|
-0.09
|
0.77
|
|
dlogGDP L2
|
0.03
|
0.08
|
0.46
|
0.64
|
-0.12
|
0.20
|
Source: Authors’ calculation using STATA 13.
|
Panel VAR-Granger causality Wald test
Ho: Excluded variable does not Granger-cause
Equation variable
Ha: Excluded variable Granger-causes Equation
variable
|
|
Equation \ Excluded
|
chi2
|
df
|
Prob > chi2
|
|
dlogSPE
|
|
dPVR
|
3.55
|
2
|
0.16
|
|
dlogGDP
|
1.69
|
2
|
0.42
|
|
All
|
5.83
|
6
|
0.21
|
|
dPVR
|
|
dlogSPE
|
0.25
|
2
|
0.88
|
|
dlogGDP
|
12.35
|
2
|
0.00
|
|
All
|
13.99
|
6
|
0.00
|
|
dlogGDP
|
|
dlogSPE
|
0.53
|
2
|
0.76
|
|
dPVR
|
1.49
|
2
|
0.47
|
|
All
|
1.79
|
6
|
0.77
|
Source: Authors’ calculation using STATA 13.
|
GMM Estimation
|
|
Initial weight matrix: Identity
|
|
GMM weight matrix: Robust
|
|
No. of obs. = 180
|
|
No. of panels= 30
|
|
Ave. no. of T = 6.000
|
|
Variables
|
Coef.
|
Std. Err.
|
z
|
P>|z|
|
[95% Conf. Interval]
|
|
dlogSPE
|
|
dlogSPE L1
|
-0.19
|
0.22
|
-0.88
|
0.38
|
-0.63
|
0.24
|
|
dlogSPE L2
|
-0.18
|
0.15
|
-1.19
|
0.23
|
-0.47
|
0.11
|
|
dINQ L1
|
-0.00
|
0.00
|
-0.75
|
0.45
|
-0.01
|
0.00
|
|
dINQ L2
|
-0.00
|
0.00
|
-1.37
|
0.17
|
-0.01
|
0.00
|
|
dlogGDP L1
|
0.10
|
0.16
|
0.61
|
0.53
|
-0.22
|
0.42
|
|
dlogGDP L2
|
0.04
|
0.10
|
0.44
|
0.66
|
-0.15
|
0.24
|
|
dINQ
|
|
dlogSPE L1
|
-4.98
|
5.72
|
-0.87
|
0.38
|
-16.21
|
6.24
|
|
dlogSPE L2
|
-5.37
|
4.09
|
-1.31
|
0.18
|
-13.38
|
2.64
|
|
dINQ L1
|
-0.09
|
0.14
|
-0.67
|
0.50
|
-0.37
|
0.18
|
|
dINQ L2
|
0.02
|
0.12
|
0.20
|
0.84
|
-0.22
|
0.27
|
|
dlogGDP L1
|
-1.86
|
3.15
|
-0.59
|
0.55
|
-8.04
|
4.32
|
|
dlogGDP L2
|
7.25
|
2.68
|
2.70
|
0.00
|
1.99
|
12.51
|
|
dlogGDP
|
|
dlogSPE L1
|
0.03
|
0.26
|
0.12
|
0.90
|
-0.49
|
0.55
|
|
dlogSPE L2
|
-0.06
|
0.14
|
-0.44
|
0.66
|
-0.35
|
0.22
|
|
dINQ L1
|
-0.00
|
0.00
|
-0.20
|
0.84
|
0.00
|
0.00
|
|
dINQ L2
|
-0.00
|
0.00
|
-0.99
|
0.32
|
0.00
|
0.00
|
|
dlogGDP L1
|
0.32
|
0.22
|
1.44
|
0.15
|
-0.11
|
0.77
|
|
dlogGDP L2
|
0.01
|
0.08
|
0.13
|
0.89
|
-0.15
|
0.17
|
Source: Authors’ calculation using STATA 13.
|
Panel VAR-Granger causality Wald test
Ho: Excluded variable does not Granger-cause
Equation variable
Ha: Excluded variable Granger-causes Equation
variable
|
|
Equation \ Excluded
|
chi2
|
df
|
Prob > chi2
|
|
dlogSPE
|
|
dINQ
|
1.98
|
2
|
0.37
|
|
dlogGDP
|
0.48
|
2
|
0.78
|
|
All
|
2.51
|
6
|
0.64
|
|
dINQ
|
|
dlogSPE
|
1.75
|
2
|
0.41
|
|
dlogGDP
|
8.18
|
2
|
0.01
|
|
All
|
9.31
|
6
|
0.05
|
|
dlogGDP
|
|
dlogSPE
|
0.56
|
2
|
0.75
|
|
dINQ
|
1.21
|
2
|
0.54
|
|
All
|
1.62
|
6
|
0.80
|
Source: Authors’ calculation using STATA 13.
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March, 2023 I/2023
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