Student Learning Styles in Information Technology
SUSSY BAYONA-ORÉ
Autonomous University of Peru,
Lima,
PERU
Abstract:- Teachers employ various strategies to facilitate student learning. Each student possesses a unique
way of gaining motivation and absorbing information. Achieving the best possible outcomes in the teaching-
learning process involves considering the individual learning styles of each student. Among the several models
available for determining learning styles, Kolbs model stands out as widely utilized. This article aims to apply
Kolbs learning styles model to identify the preferred learning styles of 53 students enrolled in a course focused
on information technologies. The sampling method used was non-probabilistic, and data collection relied on the
Kolb learning style inventory. The obtained results indicate that the prevailing learning styles among the
surveyed students are convergent (47.2%) and assimilative (34.0%). Familiarity with the diverse learning styles
of the students can significantly assist teachers in enhancing the efficiency of the teaching-learning process.
Key-Words: - learning, Kolbs model, education, learning styles
Received: September 16, 2022. Revised: August 11, 2023. Accepted: September 9, 2023. Published: September 28, 2023.
1 Introduction
Each student possesses a distinct learning style and
a unique manner of interacting with the world. The
students learning approach is rooted in cognitive
and psychological factors. The various methods by
which individuals acquire knowledge have been
labeled as learning styles, [1]. Diverse learning
styles have captured the attention of educators and
the scholarly community, [2], [3]. Recognizing a
students predominant learning style can effectively
enhance the learning process, [2], facilitating
improved comprehension and retention.
Numerous authors concur that embracing the
concept of learning styles allows for the
implementation of suitable pedagogical
methodologies within the classroom, [4]. It also
enables the cultivation of a versatile approach that
resonates with the majority of students, [5].
Consequently, the notion of learning styles serves as
a tool for refining the teaching-learning process.
Learning entails the acquisition or adaptation of
ideas, skills, capabilities, behaviors, or principles.
As per Kolb, learning leads to the assimilation of
abstract concepts applicable across diverse
scenarios. However, when presented with the same
information, distinct individuals may interpret,
process, and grasp it in varying ways. The interest in
learning styles has given rise to the formulation of
several learning style models, including Felders
model, Kolbs model, [6], and the VARK model,
denoting visual, auditory, reading/writing, and
kinesthetic processes that emphasize, [7].
Kolbs model is based on experiential learning
theory, [6]. Kolb introduced a questionnaire
consisting of 12 questions designed to assess
learning styles. This inventory enjoys widespread
acceptance and use, [8]. In his proposition, Kolb,
[6], stipulated that four processes are requisite for
effective learning: (1) concrete experience (CE),
(2) reflective observation (RO), (3) abstract
conceptualization (AC), and (4) active
experimentation (AE).
Felders model establishes four interconnected
dimensions: active-reflective (processing
information); sensing-intuitive (perceiving
information); visual-verbal (inputting information)
and sequential-global (understanding information),
[7]. The VARK model underscores the previously
mentioned visual, auditory, reading/writing, and
kinesthetic classifications.
Kolbs model has found utility in discerning
students learning styles. This investigation employs
Kolbs model to ascertain the learning preferences
of undergraduate students pursuing information
technology-related courses. Such courses
encompass subjects like mathematics, programming,
and model conceptualization, among others. The
capacity to recognize and tackle challenges through
innovative means holds paramount significance.
Various studies probing student attrition in
information and communication technology courses
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suggest that individuals encountering difficulties in
mathematics and programming may be prone to
discontinuation, especially during the initial years of
study.
This work aims to determine the predominant
learning styles among university students enrolled in
information technology-related courses.
This study adds to the existing body of
knowledge concerning learning styles among
students in the realm of information technology,
offering valuable insights for educators,
administrators, and students alike. Comprehending
student learning styles equips teachers with the tools
to employ varied strategies within the teaching-
learning process, thereby enhancing the
effectiveness of student learning.
2 Kolbs Model and Learning Styles
Learning theories elucidate how people acquire,
retain, and recall knowledge. A learning style
represents the preferred manner in which a student
processes and retains information. Table 1 presents
the description of learning styles, adapted from
Kolb, [6].
Table 1. Learning styles
Learning style
Description
Divergent
Divergent learners live in the present
with enthusiasm and a preference for
short-term planning. They are good
team players and become involved in
the activities of others. Creative and
open-minded, they generate ideas.
Assimilative
Assimilative learners are
characterized by analytical behavior.
They observe and analyze
experiences, collecting data and
examining them to draw
conclusions. They act cautiously, are
not very sociable, and prefer to go
unnoticed. Preferring to listen rather
than talk, they are observant, patient,
and detail-oriented.
Convergent
Convergent learners place a high
value on logic and reason and are
uncomfortable with an absence of
logic. They seek objectivity and shy
away from the subjective.
Accommodative
Accommodative learners put into
practice the knowledge, techniques,
and theories they have learned. They
are practical and realistic.
2.1 The Kolb Model
According to Kolb, learning is the process whereby
knowledge is created through the transformation of
experience, [6]. Kolb identified four learning
styles: convergent (problem-solving and
implementation of ideas), divergent (imaginative
ability), assimilative (strong inductive reasoning),
and accommodative (efficiency in executing plans),
[9]. Kolbs learning cycle encompasses four action
stages: feeling, observing, thinking, and doing.
Furthermore, Kolbs model serves as an
appropriate pedagogical framework for engineering
education, [10], with individuals possessing a
divergent learning style often opting for careers
such as computer science or engineering, [11].
Researchers have shown keen interest in the
learning styles of students across various
disciplines. To comprehend the extent of this
interest, this study examined articles published in
the Scopus database.
To identify relevant scientific in computer
science and engineering, the following search string
was utilized: (TITLE-ABS-KEY (Kolb OR Kolbs)
AND TITLE-ABS-KEY (students) AND TITLE-ABS-
KEY (engineering and computer science)). This
search included journals and conference papers.
Figure 1 illustrates the publications found in Scopus
from 1982 to 2022.
Figure 1 indicates an upward trajectory in
publications related to Kolbs model across different
disciplines (total). The most significant surge is
observed in the period from 2017 to 2020, which
partially coincides with the onset of the COVID-19
pandemic. The pandemic led to university closures
and necessitated the transition from in-person
classes to virtual ones.
The trend of publications related to Kolbs model
in computer science and engineering also exhibits a
slight rise until 2019. Among the countries
contributing most to these publications are the
United States (388), the United Kingdom (99),
Australia (67), Turkey (60), and Canada (54).
Figure 2 displays the distribution of articles
published on Kolbs model by subject area. Notably,
12.4% of articles fall under the engineering field,
while 11.0% pertain to computer science.
An analysis of keywords utilized by authors in
the selected Scopus listings was performed using the
VOSviewer software, [12]. This analysis revealed
six clusters, as presented in Table 2.
The first cluster pertains to the intersection of
Kolbs learning styles and technologies,
encompassing intelligent tutoring, and online
learning. personalized learning and problem-
solving.
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Cluster 2 is linked to appropriate technology,
cognitive systems, and machine learning techniques,
among other subjects.
Cluster 3 is associated with mathematical
models, project management, education, and
curricula.
Cluster 4 includes keywords related to learning,
experiential learning, learning styles, and online
systems.
Cluster 5 addresses individual differences,
personalization, learning systems, and student
learning styles.
Fig. 1: Publications concerning the Kolb model per year in Scopus: total vs. engineering publications
Cluster 6 includes topics such as computer
science, mechanical engineering, and Kolbs
learning style inventory.
Table 2. Keywords used in Scopus publications on
Kolbs model
Cluster
Keywords
1
Communication, computer-aided instruction, e-
learning, education computing, education field,
individual learning, intelligent tutoring system,
Kolbs learning style, online learning,
personalized learning, and problem-solving.
2
Appropriate technology, behavioral research,
brain signals, electroencephalogram (EEG),
classification (of information), cognitive systems,
electroencephalography, and personality type.
3
Curricula, engineering education, learning
strategy, mathematical models, personnel
training, professional aspects, project
management, students, and teaching.
4
Experiential learning, learning, learning
effectiveness, learning styles, online systems, and
World Wide Web.
5
Individual differences, learning systems,
personalization, student learning style.
6
Computer science, Kolbs learning style
inventory, mechanical engineering, multimedia
systems.
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2.2 Applications of Kolbs Model
Kolbs model has been utilized to ascertain the
learning styles of students across various subject
areas and to design educational programs. The
study, [13], contends that when planning a medical
program, considering student learning styles is
crucial, a determination that can be facilitated
through the employment of the Kolb inventory.
Kolbs inventory has proven effective in
designing adult-oriented education programs, [14],
and in elucidating the distinctions between the
learning styles of surgical residents and general
surgeons, [15].
The study, [16], evaluated disparities in learning
styles, leadership skills, and critical thinking
abilities. The presence of students with diverse
learning styles presents an opportunity within the
teaching-learning process, rather than a hindrance,
[3].
In fields like computer science, the motivation to
apply Kolbs model in discerning students learning
styles arises from the necessity to bolster their
metacognition. Metacognition, a vital aspect of
mastering programming, involves the observation
and control of ones discernment exercises, [17].
The study, [18], employed Kolbs model and
machine learning to categorize 546 students based
on their attributes using clustering techniques.
The learning cycle encompassing four processes
as presented in Kolbs model has been harnessed to
formulate course modules in complex system
design, develop educational packages, and compare
student attitudes. For instance, it was employed as
an organizational principle in a study where
undergraduate students in electronic and computer
engineering learned about hardware security threats
and the development of a secure chip design
module, [19].
An educational package founded on a serious
game was devised for disaster prevention education,
[20]. While conventional educational methods often
fail to convey past experiences or stimulate student
interest, games prove highly effective in disaster
management. Consequently, the study, [20],
incorporated Kolbs experiential learning cycle into
their Battle of Flooding Protection game, leading
to significant positive outcomes in students disaster
prevention skills.
Kolbs model has also been synergistically
employed with other methodologies to enhance the
learning environment and thereby amplify students
capabilities by fostering experiential learning, [21].
In a bid to ameliorate the competencies and
academic performance of mechanical engineering
students, Kolbs model was implemented to identify
learning styles and appropriate learning models in
one instance; this yielded a favorable impact on
academic performance, [22].
Moreover, numerous studies have posited that in
the domain of Technology Enhanced Learning, the
consideration of students learning styles is
imperative when devising educational sequences, as
suitable adaptation could heighten their motivation,
[23].
Pedagogical approaches rooted in Kolbs model
have been incorporated into automotive engineering
courses, focusing on the dynamic performance of
vehicles and providing a learning environment
enriched with hands-on experiments, [24].
In the realm of health, Kolbs model has been
harnessed within the teaching-learning process for
biomedical engineering students who observed a
medical care procedure. They identified an issue and
proposed an enhancement that was implemented,
yielding benefits for both students and professors,
[25].
In the field of automotive engineering, Kolbs
model has been applied to enhance the learning
experiences of engineering students, encompassing
subjects like sensors, actuators, interfacing, and
programming for industrial and automotive
automation applications, [26]. Also, Kolb’s model
has been used in a course on software engineering
focus on modeling to developing software systems
(Unified Modelling Language), [27]; the results
show that the predominant learning styles were
convergent (27%), assimilative (27%) and
accommodative (23%).
Additionally, machine learning, [18], data
mining, or process mining techniques are widely
used to improve organizational performance,
decision-making, and organizations more
competitive, [28], and are usually offered in areas
such as Computer Science and Engineering. Kolb’s
model has been applied to determine the
connections between learning styles and specific
performance outcomes of 86 undergraduate students
not majoring in computer science, [29]. The results
indicate that the predominant learning styles were
accommodative (43%), convergent (33%), and
assimilative (13%).
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3 Methodology
A cross-sectional descriptive study was undertaken,
involving 53 undergraduate students from an
engineering school who were enrolled in
information technology-related courses. The
sampling method employed was non-probabilistic.
For data collection, the researchers utilized
Kolbs inventory, [6], which was adapted to include
items such as age, gender, course, type of high
school (state or private), and place of origin. An
online questionnaire was employed for data
collection. The responses from the surveys were
organized within an Excel spreadsheet. Subsequent
calculations were carried out to ascertain learning
styles in accordance with Kolb, [6], followed by
data analysis employing SPSS software.
The participants encompassed both genders, with
84.9% being male and 15.1% being female. In terms
of educational background, 62.3% attended private
high schools, while 37.7% attended public high
schools.
4 Results
The research results indicate the characteristics of
the surveyed students. It is discernible that all
learning styles are present among the participants in
the study. Notably, the prevailing learning styles
observed among these students were the convergent
learning style (25) and the assimilative learning
style (18). Conversely, fewer students were
exhibiting an accommodative learning style (4) or a
divergent learning style (6).
Table 3 shows the percentage distribution of
study participants based on their learning styles.
Students predominantly inclined towards a
convergent learning style tend to possess rational,
analytical, and task-oriented characteristics. They
take pleasure in technical facets, employ deductive
reasoning, and often excel in the practical
application of ideas. Sequential thinking is a
hallmark of their cognitive approach. They might
experience discomfort with endeavors lacking
logical structure or subjective judgments. The
outcomes underscore that 47.2% of the surveyed
undergraduate students identified with the
convergent learning style.
According to Kolb, individuals exhibiting an
assimilative learning style emphasize AC and RO.
They possess a strong inclination towards ideas and
concepts, often aspiring to formulate models and
appreciate coherence. The outcomes reveal that
34.0% of the surveyed students aligned with an
assimilative learning style.
Table 3: Percentage of study participants by
learning style
Learning style
Quantity
%
Accommodative
4
7.5
Assimilative
18
34.0
Convergent
25
47.2
Divergent
6
11.3
On the other hand, students manifesting a
divergent learning style typically demonstrate
creativity, adeptness in generating diverse problem-
solving approaches, and a penchant for imaginative,
emotional, and empathetic thinking. Their cognitive
approach leans towards inductive or deductive
reasoning. According to the findings, 11.3% of the
surveyed students identified with a divergent
learning style.
Learners characterized by an accommodative
learning style exhibit adaptability to various
circumstances and a willingness to take risks. They
often rely on instinct or intuition rather than logical
analysis. The results indicate that 7.5% of the
surveyed students displayed an accommodative
learning style.
5 Discussion
The findings of this study highlight the utility of the
Kolb inventory in delineating the learning styles of
university students pursuing careers associated with
information technology. Kolbs model can also
provide insights into comprehending information
and communication technologies, [21]. The
significance of discerning students learning styles
arises from the imperative to understand their
attributes and enhance teaching strategies for more
impactful learning experiences.
The outcomes align with prior studies conducted
among engineering students, wherein assimilative
and convergent learning styles prevailed,
particularly the convergent style among Informatics
Engineering students, [4], or Software Engineering
students, [27]. The dominant learning style
identified in this study correlates with the
competencies demanded of engineering students,
namely problem-solving. In the realm of computer
science, programming and analytical skills are
prerequisites for effectively applying techniques,
methodologies, and tools to resolve specific
challenges.
According to, [11], individuals possessing a
convergent learning style exhibit characteristics of
adept problem-solving and decision-making. Such
individuals often gravitate towards professions
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demanding technological acumen, such as
engineering or computer science. To enhance their
abilities, they could focus on refining aspects linked
to decision-making and goal establishment.
Students demonstrating an assimilative learning
style exhibit an affinity for technical tasks and the
generation of models. To address the deficiency in
practical implications, improvements should be
targeted at aspects related to experimental design
and quantitative data analysis.
The results of this study show that students have
diverse learning styles. In, [29], the predominant
learning styles of students not majoring in Computer
Science were accommodative and convergent.
According to, [5], a common concept says that
individuals differ in how they learn.
Educators should acquaint themselves with their
students learning styles to tailor suitable
pedagogical strategies. Similarly, students, armed
with knowledge of their learning styles, can identify
their strengths and address their weaknesses.
In fields tied to information technologies,
students should engage in projects aimed at solving
authentic problems, thus preparing themselves to
confront challenges posed by the digital
transformation of organizations.
A limitation of this study rests in its inability to
generalize results due to the participant count and
the nature of the sample. In forthcoming research,
students from information technology-related fields
across a representative selection of universities
should be considered to enhance the studys
robustness.
6 Conclusions
The topic of learning styles within courses linked to
information and communication technologies
garners significant interest within the academic
community. This study delved into the learning
styles of 53 undergraduate students, utilizing Kolbs
inventory as a data collection instrument. The
findings showcased a prevalent presence of both the
convergent learning style, evident in 47.2% of the
sample, and the assimilative style, accounting for
34.0%. Consequently, educators should tailor their
pedagogical approaches primarily to align with
these predominant learning styles. It is important to
note that a limitation of this study lies in its sample
size. The outcomes of this study are anticipated to
be valuable to students, academic administrators,
and most importantly, educators. Acquiring an
understanding of their students learning styles
empowers teachers to implement instructional
strategies more likely to resonate with the majority
of students. In subsequent research endeavors,
evaluating learning styles across diverse courses can
help establish distinct student profiles.
References:
[1] N. Asiah, G. Ab, R. Nik, Learning styles of
business students at a Malaysian polytechnic,
Int. J. Educ. Res, Vol. 3, No. 10, 2015,
pp.275-288.
[2] H. Altun, Investigation of High School
Students Geometry Course Achievement
According to Their Learning Styles, Higher
Education Studies, Vol. 9, No. 1, 2019, pp.1-
8.
[3] N. Bilbao, A. de la Serna, E. Tejada, and A.
Romero, Analysis of Learning Styles (Kolb)
in Students of the Degrees in Early Childhood
Education and Primary Education within the
Faculty of Education, TEM journal, Vol. 10,
No. 2, 2021. pp.724-731.
[4] M. Sousa and E. Fontão, Exploring Learning
Styles in a Portuguese Engineering School:
Are They Different in Different Courses?, Int.
J. Eng. Pedagog., Vol. 10, No. 6, 2020, pp.78-
94.
[5] J. Bajpai, A. SinghRaghuwanshi and A.
Taskar, Learning Style: Engineering Students
vs Management Students, International
Journal of Advanced Research, Vol. 6, No. 1,
2018, pp.893- 897.
[6] D. Kolb, Experiential learning experiences as
the source of learning development. New
York: Prentice Hall, 1984.
[7] E. Jamila, Determining Learning Styles of
Engineering Students and the Impact on Their
Academic Achievement. In Advances in
Integrated Design and Production:
Proceedings of the 11th International
Conference on Integrated Design and
Production, CPI 2019, October 14-16, 2021,
Fez, Morocco, pp.419-423. Springer
International Publishing.
[8] D. Campos, M. Alvarenga, S. Morais, N.
Gonçalves, T. Silva, M. Jarvill and A.
Oliveira, A multi-centre study of learning
styles of new nursing students, Journal of
Clinical Nursing, Vol. 31, No. 1-2, 2022,
pp.111-120.
[9] H. Gaikwad, Analysis of learning styles of
engineering students for improving
engineering education, J. Eng. Educ.
Transform., Vol. 30, No. 2, 2017, pp.44-59.
[10] M. Abdulwahed and Z. Nagy, Applying
Kolbs experiential learning cycle for
WSEAS TRANSACTIONS on COMPUTER RESEARCH
DOI: 10.37394/232018.2023.11.35
Sussy Bayona-Oré
E-ISSN: 2415-1521
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Volume 11, 2023
laboratory education, Journal of Engineering
Education, Vol. 98, No. 3, 2013, pp.283-294.
[11] F. Kaya, ÖZABACI N. and Tezel Ö.,
Investigating primary school second grade
students learning styles according to the Kolb
learning style model in terms of demographic
variables, Journal of Turkish Science
Education, Vol. 6, No. 1, pp.13-27, 2009.
[12] N. Van Eck and L. Waltman, VOS: A new
method for visualizing similarities between
objects, In H.-J. Lenz & R. Decker (Eds.),
Advances in data analysis: Proceedings of the
30th annual conference of the German
Classification Society, Heidelberg: Springer,
pp.299-306, 2007.
[13] A. Leonard and I. Harris, Learning style in a
primary care internal medicine residency
program, Archives of Internal Medicine, Vol.
139, No. 8, 1979, pp.872-875.
[14] K. Pigg, L. Busch and W. Lacy, Learning
styles in adult education: A study of county
extension agents, Adult Education, Vol. 30,
No. 4, 1980, pp.233-24.
[15] P. Engels and C. de Gara, Learning styles of
medical students, general surgery residents,
and general surgeons: implications for
surgical education, BMC Medical Education,
Vol. 51, 2010, pp.1-6.
[16] M. Dykhne, S. Hsu, S. McBane, E. Rosenberg
and R. Taheri, Differences in learning styles,
critical thinking skills, and peer evaluations
between students with and without leadership
engagement, Currents in Pharmacy Teaching
and Learning, Vol. 13, No. 6, 2021, pp.659-
664.
[17] C. Hota, V. Asanambigai and D. Lakshmi,
Investigation Of Metacognitive Awareness In
Learning Programming Course Using
Multiple Criteria Decision Making Algorithm:
Topsis, Journal of Pharmaceutical Negative
Results, Vol. 13, No. 09, 2022, pp.1007-1016.
[18] H. Nguyen, L. Nguyen, K. Do Trung, Long
Dang Hoang, T. Vu, V. Nguyen, Applying
machine learning techniques to detect
students learning styles, ACM International
Conference Proceeding Series, (ICETC '22:
Proceedings of the 14th International
Conference on Education Technology and
Computers), pp.456-462, 2022.
https://doi.org/10.1145/3572549.3572622.
[19] B. Halak, Course on secure hardware design
of silicon chips, IET Circuits Devices Syst,
Vol. 11, No. 4, 2017, pp.304-309.
[20] M. Tsai, Y. Chang, J. Shiau and S. Wang
Exploring the effects of a serious game-based
learning package for disaster prevention
education: The case of Battle of Flooding
Protection, International Journal of Disaster
risk reduction, Vol. 43, 2020, pp.101393.
[21] G. Garcés and C. Peña, Adapting engineering
education to BIM and Industry 4.0: A view
from Kolbs experiential theory in the
laboratory. Ingeniare, Revista chilena de
ingeniería, Vol. 30, No. 3, 2022, pp.497-512.
[22] N. Jalinus, M. Zaus, R. Wulansari, R. Nabawi,
and H. Hidayat, Hybrid and Collaborative
Networks Approach: Online Learning
Integrated Project and Kolb Learning Style in
Mechanical Engineering Courses,
International Journal of Online & Biomedical
Engineering, Vol. 18, No. 15, 2022, pp.4-16.
[23] L. Bennis, K. Kandali and H. Bennis,
Studying Learners Player Learning Style for
Generating Adaptive Learning Game, IEEE
Access, Vol.10, 2022, pp.103880-103887.
[24] M. Mehrtash, Experiential Learning in
Vehicle Dynamics Education via a Scaled
Experimental Platform: Handling
Performance Analysis, In New Realities,
Mobile Systems and Applications:
Proceedings of the 14th IMCL Conference,
Apr. 2022, pp.694-702.
[25] L. Montesinos, D. Salinas-Navarro, and A.
Santos-Diaz, Transdisciplinary experiential
learning in biomedical engineering education
for healthcare systems improvement, BMC
Medical Education, Vol. 23, No. 207, 2023,
pp.1-13.
[26] M. Mehrtash, Adapting Experiential E-
learning in Engineering Education with
Industry 4.0 Vision, In Learning in the Age of
Digital and Green Transition: Proceedings of
the 25th International Conference on
Interactive Collaborative Learning
(ICL2022), Vol. 1, pp.479-488, 2023.
[27] N. Waibel, Y. Sedelmaier, and D. Landes,
Using learning styles to accommodate for
heterogeneous groups of learners in software
engineering, In 2020 IEEE Global
Engineering Education Conference
(EDUCON), pp.819-826, 2020.
[28] M. Rivas and S. Bayona-Oré, Process Mining
Algorithms for Automated Process
Discovery, Revista Ibérica de Sistemas e
Tecnologias de Informação, Vol. 31, 2019,
pp.33-49.
[29] M. North, C. Terrence, B. Samuel, The Effect
of Student Self-described Learning Styles
within Two Models of Teaching in an
Introductory Data Mining Course. In 37th
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ASEE/IEEE Frontiers in Education
Conference, October 2007, pp.1-6.
Contribution of Individual Authors to the
Creation of a Scientific Article (Ghostwriting
Policy)
The author 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 author has no conflict of interest to declare.
Creative Commons Attribution License 4.0
(Attribution 4.0 International, CC BY 4.0)
This article is published under the terms of the
Creative Commons Attribution License 4.0
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