Comperative Efficiency using Data Envelopment Analysis (DEA) and
Stochastic Frontier Analysis (SFA) in the Banking Industry
ZAENAL ABIDIN1, R. MAHELAN PRABANTARIKSO2*, EDIAN FAHMY3, AMABEL NABILA4
1School of Business Administration
Perbanas Institute
Jakarta, 12940
INDONESIA
2School of Business Administration
Sekolah Tinggi Ilmu Ekonomi Indonesia Banking School
Jakarta, 12730
INDONESIA
3School of Business Administration
Universitas Pamulang
Tangerang Selatan, Banten
INDONESIA
4Faculty of Economic Sciences
University of Warsaw
Warsaw, 00-241
POLAND
*Correspondent Author
Abstract: - This study's objective is to employ data envelopment analysis (DEA) and stochastic frontier analysis
(SFA) to investigate the efficiency accomplishments of Indonesian commercial banking from 2018 to 2019. The
first method of measuring efficiency employing a non-parametric data envelopment analysis (DEA) technique
reveals that the average efficiency of 71 banks fell from 2018 (0.82) to 2019 (0.81). According to DEA findings,
major banks outperform small banks on average. According to the approximated SFA Cobb-Douglas (CD)
function, interest expenditure and labor expense have a positive and considerable influence on interest income. This
occurs when deposit interest rates rise, banks gain interest revenue by raising lending rates, and banks increase
non-interest income. According to the SFA of the Cobb-Douglas function, many banks are inefficient, particularly
the first to 49th banks that arise from small banks. The Gamma value is near one (0.999), while the LR test yields a
significant result of 36.14. The Cobb-Douglas SFA model is therefore applicable. The efficiency performance
findings from the two models above reveal the same thing: large banks are more efficient than small banks.
Key-Words: - Data Envelopment Analysis (DEA), Stochastic Frontier Analysis (SFA), Banking Performance,
Efficiency, Indonesia.
Received: March 6, 2023. Revised: August 23, 2023. Accepted: September 21, 2023. Available online: November 2, 2023.
1 Introduction
The banking industry's efficiency performance is
often measured using basic ratios based on financial
statements, balance sheets, and profit and loss
statements. However, there are various approaches
for assessing efficiency performance. SFA
(Stochastic Frontier Analysis) and DEA (Data
Envelopment Analysis) are two extensively utilized
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DOI: 10.37394/23207.2024.21.10
Zaenal Abidin, R. Mahelan Prabantarikso,
Edian Fahmy, Amabel Nabila
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efficiency measuring methodologies. SFA is a
parametric model approach pioneered that includes
two forms of normally distributed random errors as
well as one type of random error with multiple
distributions, [1]. This one-sided random error is
unique to each business and gauges the difference
between actual production and prospective output
created by high-efficiency technology, allowing
technical efficiency to be evaluated.
Since DEA uses linear programming techniques
to estimate a firm's technical efficiency while taking
a range of inputs and outputs into account, [2]. The
DEA, on the other hand, is unable to differentiate
between technological inefficiencies and random
mistakes. Furthermore, the DEA does not generate
standard mistakes. As a result, when analyzing
banking efficiency performance, SFA and DEA
analytic tools work better together.
When reading the financial performance of banks
from 2018 to 2020, the average NPL Ratio of
Indonesian banks was 2.7% at the end of 2018, 2.6%
at the end of 2019, and 3.1% at the end of 2020. This
also applies to the financial performance of the Cost
cost-efficiency ratio (CIR). Using the financial ratio
approach, this ratio calculates the percentage of a
bank's operating expenditures to operational income
or efficiency performance. The Covid-19 epidemic
was responsible for the decreasing financial
performance, [3].
Up to this point, there hasn't been much
discussion of how well two methodsData
Envelopment Analysis (DEA) and Stochastics
Frontier Analysis (SFA)perform in terms of
banking efficiency in developing countries.
In addition, previous discussions about the
efficacy of DEA and SFA on banking efficiency in
developing countries have been restricted. This
emphasizes the relevance of my research within the
context of an economy that faces significant
challenges from more developed nations.
This paper's objective is to assess and compare
the performance of banking efficiency for the years
2018 and 2019 using DEA and SFA.
2 Literature Review
There are two empirical methods for measuring
efficiency: parametric and non-parametric. The most
common parametric is stochastic frontier analysis
(SFA), [1]. Data envelopment analysis (DEA), is the
most widely used nonparametric method, [4].
Empirical studies have utilized these two distinct
methodologies, stressing the advantages and
disadvantages of each methodology. The stochastic
econometric (SFA) technique aims to differentiate
the effects of noise from the impacts of inefficiency.
Because the programming technique (DEA) is not
stochastic, it combines noise with inefficiency and
refers to this combination as inefficiency.
Parametric and nonparametric methodologies
have been utilized in bank efficiency research,
however, there is no consensus on the consistency of
efficiency performance, [5]. Due to the
inconsistency, various efficient bank ratings were
produced.
To conduct a banking study in India, parametric
and nonparametric analyses were used. Researchers
discovered that SFA and DEA models with different
return scales generated the best results, [6].
In the banking industry, inefficiency is caused by
a lack of revenue interest, optimal lending, excessive
human resource expenses, and high-interest charges
when using DEA, [7]. The main reasons for
operational inefficiency are high interest costs and
the high cost of human resources.
Organizations that effectively implement digital
business transformation are more efficient in their
use of resources than companies that do not, [8].
Furthermore, government assistance and proper
digital infrastructure have a significant influence on
firm efficiency.
Conclusions on the relevance of digital business
transformation in enhancing firm efficiency and how
DEA analytical methodologies may be utilized to
assess the effectiveness of digital business
transformation in emerging nations like Serbia, [9].
A banking study in Bangladesh utilizing SFA
and DEA methodologies claimed that GCG has an
impact on efficiency performance, [10].
Organizations that have been in operation for a
long time will be more productive and efficient than
organizations that have not been in operation for a
long time, [11], [12].
State-owned and foreign-owned enterprises
outperform private domestic companies in terms of
efficiency, [12], [13].
According to the findings of the preceding study,
researchers used the SFA approach to conduct
research on 26 banks in Ghana from 2003 to 2011
and discovered that large banks are more efficient
than small banks since large banks earn money other
than interest, [14].
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A study on pandemic situations revealed that
larger companies are more efficient, [15]. They used
the Cobb-Douglas SFA approach to evaluate the
data. The findings also reveal that the Covid-19
epidemic has had a significant impact on the
technical efficiency of Russian firms, but that this
negative effect is expected to fade in the long run.
3 Research Method
3.1 Research Sample
With 88 banks, the research population included all
conventional commercial banks but excluded Islamic
banks. The secondary data utilized originates from
the Financial Services Authority's publishing report
period for 2018 and 2019, [16]. Banks with
incomplete financial statements throughout the
observation period are excluded from the study
object.
Thus, the overall sample is 71 banks, with banks
1 to 49 classified as small because their capital is less
than Rp. 5 trillion, and banks 50 to 71 classified as
large because their capital is greater than Rp. 5
trillion. Because of the COVID pandemic in 2020,
the author utilizes data from 2018 and 2019. The
company's financial performance dropped throughout
the epidemic, [15]. The bank sample is as follows
(Table 1, Appendix):
3.2 Analysis Tool
DEA and SFA models reflect the financial
intermediation role of a bank and use variables used
in similar research to analyze the efficiency
performance of bank variables [7], [17]. Interest
income and non-interest revenue were chosen as
outputs. Interest and labor costs are used as inputs. In
this study, we use the Variable Returns to Scale
(VRS) model in conjunction with the intermediation
technique for DEA, which is based on the input-
output relationship between bank functions. Use
exogenous variables for SFA, such as size (total
asset).
The initial phase in this research is to apply the
DEA approach with the Banxia Frontier Analysis
(BFA) software to estimate the level of efficiency of
small and large banks in the 2018-2019 period. The
DEA approach employs a linear model in a non-
parametric frontier model.
The selection of outputs and inputs is critical in
DEA. Interest income and non-interest revenue are
often chosen as outputs since they reflect a bank's
primary revenue-generating activities. Interest and
labor costs are utilized as inputs since they have a
significant impact on a bank's operating efficiency.
The DEA technique contains two approach
models: the Charnes-Cooper-Rhodes (CCR) model
and the CRS (Constant Return to Scale) model. The
second approach model is the Banker, Charnes,
Cooper (BCC) model, which assumes that the unit
operates at an optimal scale or not.
Since it considers the likelihood that banks might
not operate at their ideal scale due to numerous
challenges and competition, the BCC model is
frequently chosen for studying banks. The VRS
model is used along with DEA to account for the
possibility that banks could operate at various scales
of production. This model makes it possible to
analyze efficiency in situations where factors like
competition and real-world constraints affect the
appropriate operational scale for a bank. The BCC or
VRS model is used in this study because the sample
is a bank where various obstacles and financial
competition can cause the company not to operate
optimally, and the BCC model is more appropriate
for analyzing the efficiency of service companies,
[7].
The DEA degree of efficiency is suppressed data
with a restricted value ranging from 0-100. The
statistical definition of the model is as follows:
Y*0= ßxi + e0,
y0 = y*0 if y*0 > 0
y0 = 0, otherwise
Where:
-e0 : ~N (0, s²)³
-x0 dan ß : variable vectors and unknown
parameters
y0 : score DEA
-y* : latent variable
The following study uses the Stochastic frontier
analysis (SFA) formula, [18].
𝑰𝑰 󰇭
 󰇮

Information:
In Yit = represents the natural logarithm of output
(interest income and non-interest income)
X1 = represents the natural logarithm of interest
expenses
X2 = represents the natural logarithm of labor cost
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X3 = represents the natural logarithm of size (total
asset)
Vit denotes the random variables, which are
believed to be uniformly distributed normal random
errors with a zero mean and an unknown variance.
The Uit is a non-negative random variable that is
assumed to be distributed independently and
represents the technical inefficiency term. These
random error variables describe the influence of
external production elements that are outside the
establishment's control. The magnitude denotes the
technical inefficiency term.
SFA models calculate the relation between inputs
(interest costs, labor costs, and size) and outputs
(interest and non-interest income) while taking
random variables (Vit) and technical inefficiency (Uit)
into account. With this strategy, it is recognized that
not all inefficiencies ought to be simply explained by
chance.
The computer software Frontier 4.1 is used to
calculate the greatest probability of a subset of the
stochastic frontier production function, [19]. This
software determines the most likely functional form
that explains the link between inputs and outputs by
calculating the likelihood of various subsets of the
model.
4 Result and Discussion
4.1 DEA Efficiency Measurement.
According to the findings in Table 2 Appendix, the
average efficiency of 71 banks fell from 0.82 in 2018
to 0.81 in 2019. Simultaneously, the categories of
major banks and small banks declined somewhat,
with small banks falling from 0.78 to 0.77 and large
banks falling from 0.82 to 0.81. This demonstrates
that all banks' efficiency performance decreased over
the previous year.
The results show that the best practice efficiency,
with a value of 1, was attained by more than 23% (16
of 71 banks) at the end of 2018, whereas only 13 of
71 banks got the best practice performance in 2019.
It implies that, compared to 2018, fewer banks were
able to maintain or achieve the greatest degree of
efficiency in 2019. More than half of the sample
companies (55 of 71 banks) never made it to the
border throughout the test period. It demonstrates
that the bulk of the banks' operating efficiency may
use some work. Certain financial institutions,
including Bank Bisnis International, Bank Amar,
Bank Jogja, Bank Victoria, Bank Woori Saudara,
Bank Tabungan Negara, Bank UOB Indonesia, Bank
Mandiri, Bank Nasional Indonesia, Bank Panin, and
Bank Rakyat Indonesia, regularly received perfect
efficiency rankings of 1 over the two years. Other
banks experienced changes in their efficiency ratings,
some rising and some falling.
4.2 SFA Efficiency Measurement
The findings of the calculated Cobb-Douglas
production function are shown in Table 3. According
to these functions, interest expenditure and labor
expense have a positive and substantial influence on
interest income. Increases in these inputs result in
higher interest income since both the interest expense
and labor expense coefficients are positive. Interest
income increases by 0.264% for every 1% rise in
interest expenditures, while interest income increases
by 0.355% for every 1% increase in labor expenses.
This occurs when deposit interest rises and banks
boost their interest revenue by raising lending rates at
the same time, they grow their non-interest income.
This may occur because of different financial
practices used by banks.
Every 1% increase in the size of the bank reduces
inefficiencies by 0.425%. The gamma value was
close to one, and the LR test was significant. This
suggests that technological inefficiency is the product
of interest and labor costs, rather than random
mistakes. In other words, the Cobb-Douglas SFA
model is suitable. When examined further, the
efficiency performance findings of SFA and DEA are
nearly identical. Table 4 shows the technical
efficiency of the Cobb-Douglas function. The banks
in the study have a technical efficiency level of
24.2% on average, suggesting moderate efficiency;
however, several banks have very high efficiency
scores, causing the mean to be higher than the
median. This implies that a few banks are much more
efficient than the rest of the banks in the sample. On
the other hand, there are banks with lower efficiency
rankings, which contributes to the vast variation
observed. In other words, they are only using 24.2%
of their resources to create interest income.
Following that, the study has efficiency scores
ranging from 0.026 to 0.999, indicating significant
differences in their efficiency levels. The median
technical efficiency score of 0.163 separates the
banks into two halves: nearly half have scores less
than 0.163, while the other half have scores greater
than it. The wide range and a median score lower
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than the mean indicate the presence of outliers -
certain banks generate extraordinarily high interest income relative to their inputs, positively skewing the
mean efficiency number.
Table 3. Estimation Results from SFA CD Function
Frontier Function
Coef.sig level
Std. error
8,178***
1,486
(ln x1)
0,264***
0,059
(ln x2)
0,355***
0,050
([ln x1]2)
([ln x2]2)
( ln x1 ln x2)
Inefficiency term
8,888***
1,705
-0,425***
0,087
Stochastic term
0,034***
0,004
0,999***
0,091
LR
Source: Data processing by Frontier 4.1
y: sum interest income and noninterest income
x1 : interest expense
x2 : labour cost
***significance at level <0.1%
Table 4. Technical Efficiency (TE)
Function
Mean
Median
Std. deviate
Min
Max
Cobb-Douglas
0,242
0,163
0,210
0,026
0,999
Source: Data processing by Frontier 4.1
According to Table 4, the average TE is solely 0.242,
and the distribution of TE is as follows:
Fig. 1: TE Cobb-Douglas function
Figure 1 is the TE of the Cobb-Douglas function,
many banks tend to be inefficient, especially the 1st
to 49th banks that come from small banks, the results
of the CD function are consistent with the DEA
results above, and only a few specific banks show
efficiency. The variation in TE is quite large, from a
minimum of 0.026 to a maximum of 0.999.
Figure 1 depicts the TE of the Cobb-Douglas
function; many banks are inefficient, particularly the
first to 49th banks from small banks; the SFA CD
function results are consistent with the DEA results
above; and only a few unique banks demonstrate
efficiency. The range of TE values is wide, ranging
from 0.026 to 0.999, and underlines the large
variability in efficiency levels between the banks
under examination. This disparity in TE ratings
implies that some banks have significantly
-
,200000000
,400000000
,600000000
,800000000
1,00000000
1,200000000
1.1
13.1
25.1
37.1
49.1
61.1
2.2
14.2
26.2
38.2
50.2
62.2
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streamlined their resource utilization, while others
are still dealing with inefficiencies.
4.3 Discussion
By using DEA large banks outperform small banks
on average, which is consistent with previous
research, [14], [15]. Large banks, on the other hand,
are simpler to obtain non-interest revenue, [14]. This
could be related to their larger scale and resources,
which allow companies to diversify their income
sources more efficiently. Most Indonesian banks are
owned by state banks or banks with most of the
foreign ownership, [12], [13]. These banks are
typically bigger and more visible in the market.
By using SFA, the size of the bank has a negative
and considerable influence on inefficiencies, which
means that the larger the bank, the fewer
inefficiencies there are. To put it another way, the
larger the bank, the more efficient it will be. This is
supported by a study [14], [15].
Large banks are more efficient than small banks,
with state banks owning most large banks and
foreign banks owning the remainder. According to a
study [12], [13], [20]. Government-owned and
foreign-owned banks are more likely to be majority-
owned than small, domestically-owned banks
because both types of banks are more trusted by the
public and can obtain funding at a lower cost than
small domestically-owned banks.
The analysis conducted using both the DEA and
SFA approaches reveals that large banks perform
better in terms of efficiency, especially when they are
owned by the government or foreign organizations.
These findings highlight the importance of bank size
and ownership structure in affecting efficiency
outcomes in Indonesia's banking sector.
5 Conclusion
To examine efficiency performance from 2018 to
2019, this study used a non-parametric Data
Envelopment Analysis (DEA) and a parametric
Stochastic Frontier Analysis (SFA) Cobb-Douglas
(CD) Production Function.
According to DEA, the average efficiency of 71
banks fell from 0.82 in 2018 to 0.81 in 2019.
Simultaneously, the categories of major banks and
small banks declined somewhat, with small banks
falling from 0.78 to 0.77 and large banks falling from
0.82 to 0.81. According to the DEA findings, major
banks outperform small banks on average.
Cobb-Douglas (CD) Production Function based
on the value of Stochastic Frontier Analysis (SFA).
The performance of larger banks is more efficient
than that of small banks, as evidenced by Gamma
and LR test findings that were near to one and
significant, respectively. This suggests that
technological inefficiency is the product of interest
and labor costs, rather than random mistakes. In other
words, the Cobb-Douglas frontier model may be
applied.
As an outcome of the Cobb-Douglas TE
function, many banks are inefficient, notably the first
to 49th banks, which are small, and only a few
specific banks are efficient. The range of TE is wide,
ranging from 0.026 to 0.999.
According to the Cobb-Douglas SFA, interest
and labor expenses have a positive and considerable
impact on interest and non-interest revenue. This
occurs when interest rates rise, and the bank's interest
revenue (lending rate) rises at the same time as its
non-interest income rises. The outcomes of SFA and
DEA are similar in that the larger the bank, the more
efficient the bank; this occurs because most major
banks are government-owned, and others are foreign-
owned.
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APPENDIX
Table 1. Bank Sample
1
Bank Artos
2
Bank Bengkulu
3
Bank Bisnis Internasional
4
Bank BKE
5
Bank FAMA International
6
Bank Harda Internasional
7
Bank Lampung
8
Bank Sulteng
9
Bank Yudha Bakti
10
Bank Amar
11
Bank Artha Graha Internasional
12
Bank Bali
13
Bank Bumi Arta
14
Bank CCB Indonesia
15
Bank Ganesha
16
Bank INA
17
Bank Index
18
Bank J Trust Indonesia
19
Bank Jambi
20
Bank Jasa Jakarta
21
Bank Jogja
22
Bank Kalbar
23
Bank Kalsel
24
Bank Kalteng
25
Bank Kaltim Kaltara
26
Bank MalukuMalut
27
Bank MAS
28
Bank Maspion
29
Bank Mayora
30
Bank Mestika
31
Bank MNC
32
Bank Nagari
33
Bank NOBU
34
Bank NTT
35
Bank Of India Indonesia
36
Bank Papua
37
Bank QNB
38
Bank Resona Perdania
39
Bank Riau Kepri
40
Bank Sahabat Sampoerna
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41
Bank Shinhan Indonesia
42
Bank Sulselbar
43
Bank Sultra
44
Bank SulutGo
45
Bank Sumut
46
Bank Victoria
47
Bank Woori Saudara
48
BRI Agro
49
OK Bank
50
Bank BJB
51
Bank Bukopin
52
Bank DKI
53
Bank HSBC
54
Bank ICBC
55
Bank Jateng
56
Bank KEB Hana
57
Bank Mayapada
58
Bank Mega
59
Bank Permata
60
Bank Sinarmas
61
Bank Tabungan Negara
62
Bank UOB Indonesia
63
BTPN
64
Maybank
65
Bank Central Asia
66
Bank CIMB NIAGA
67
Bank Danamon
68
Bank Mandiri
69
Bank Nasional Indonesia
70
Bank Panin
71
Bank Rakyat Indonesia
Source: Otoritas Jasa Keuangan (OJK) 2019
WSEAS TRANSACTIONS on BUSINESS and ECONOMICS
DOI: 10.37394/23207.2024.21.10
Zaenal Abidin, R. Mahelan Prabantarikso,
Edian Fahmy, Amabel Nabila
E-ISSN: 2224-2899
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Table 2. DEA Efficiency Summary of bank
No
Bank
2019
2018
1
Bank Artos
0,41
0,47
2
Bank Bengkulu
0,65
0,63
3
Bank Bisnis Internasional
1
1
4
Bank BKE
0,66
0,68
5
Bank FAMA International
1
1
6
Bank Harda Internasional
0,53
0,54
7
Bank Lampung
0,76
0,77
8
Bank Sulteng
0,73
0,69
9
Bank Yudha Bakti
0,70
0,73
10
Bank Amar
1
1
11
Bank Artha Graha Internasional
0,78
0,78
12
Bank Bali
0,85
0,82
13
Bank Bumi Arta
0,68
0,72
14
Bank CCB Indonesia
0,67
0,67
15
Bank Ganesha
0,69
0,65
16
Bank INA
0,77
0,79
17
Bank Index
0,70
0,71
18
Bank J Trust Indonesia
0,62
0,63
19
Bank Jambi
0,81
0,97
20
Bank Jasa Jakarta
0,94
0,98
21
Bank Jogja
1
1
22
Bank Kalbar
0,80
0,79
23
Bank Kalsel
0,74
0,78
24
Bank Kalteng
0,77
0,97
25
Bank Kaltim Kaltara
0,89
0,74
26
Bank MalukuMalut
0,76
0,73
27
Bank MAS
0,79
0,77
28
Bank Maspion
0,68
0,63
29
Bank Mayora
0,62
0,64
30
Bank Mestika
0,79
0,79
31
Bank MNC
0,69
0,62
32
Bank Nagari
0,73
0,72
33
Bank NOBU
0,56
0,62
34
Bank NTT
0,79
0,76
35
Bank Of India Indonesia
0,84
0,80
36
Bank Papua
0,98
1
37
Bank QNB
0,68
0,75
38
Bank Resona Perdania
0,89
0,88
39
Bank Riau Kepri
0,71
0,71
40
Bank Sahabat Sampoerna
0,82
0,79
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DOI: 10.37394/23207.2024.21.10
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No
Bank
2019
2018
41
Bank Shinhan Indonesia
0,84
0,90
42
Bank Sulselbar
0,83
0,77
43
Bank Sultra
0,79
0,82
44
Bank SulutGo
0,67
0,68
45
Bank Sumut
0,75
0,77
46
Bank Victoria
1
1
47
Bank Woori Saudara
1
1
48
BRI Agro
0,99
0,97
49
OK Bank
0,59
0,65
Avarage Small Bank
0,77
0,78
NO
Bank
2019
2018
50
Bank BJB
0,82
0,83
51
Bank Bukopin
0,72
0,74
52
Bank DKI
0,72
0,72
53
Bank HSBC
0,79
1
54
Bank ICBC
1
1
55
Bank Jateng
0,81
0,82
56
Bank KEB Hana
0,93
0,97
57
Bank Mayapada
0,95
0,97
58
Bank Mega
0,81
0,79
59
Bank Permata
0,73
0,72
60
Bank Sinarmas
0,86
0,90
61
Bank Tabungan Negara
1
1
62
Bank UOB Indonesia
1
1
63
BTPN
0,88
0,89
64
Maybank
0,81
0,83
65
Bank Central Asia
1
1
66
Bank CIMB NIAGA
0,79
0,84
67
Bank Danamon
0,69
0,74
68
Bank Mandiri
1
1
69
Bank Nasional Indonesia
0,96
1
70
Bank Panin
1
1
71
Bank Rakyat Indonesia
1
1
Average Bigger Bank
0,88
0,90
Average ALL BANK
0,81
0,82
Source: Data processed using MaxDEA 8.0
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DOI: 10.37394/23207.2024.21.10
Zaenal Abidin, R. Mahelan Prabantarikso,
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Contribution of Individual Authors to the
Creation of a Scientific Article (Ghostwriting
Policy)
The authors equally contributed in the present
research, at all stages from the formulation of the
problem to the final findings and solution.
Sources of Funding for Research Presented in a
Scientific Article or Scientific Article Itself
No funding was received for conducting this study.
Conflict of Interest
The authors have no conflict of interest to declare.
Creative Commons Attribution License 4.0
(Attribution 4.0 International, CC BY 4.0)
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Creative Commons Attribution License 4.0
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DOI: 10.37394/23207.2024.21.10
Zaenal Abidin, R. Mahelan Prabantarikso,
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