An educational information system to follow up on the perceived IT
skills of pre-service teachers
MONCEF BARI
Department of Didactics
University of Quebec at Montreal
405 Sainte-Catherine Est, Montréal, QC H2L 2C4
CANADA
Abstract: - We describe an educational information system for following up the perceived IT skills of pre-
service teachers. Such an information system will help to undertake the necessary actions to better prepare them
for mastering, and eventually for using computer applications during their service teaching.
The article introduces the IT skills of pre-service teachers intended to be tracked then it describes the approach
used to collect the data related to those skills (questionnaire and survey). The approach used to store and
compute the collected data is based on various computer applications and fields, namely Google forms, Google
spreadsheets, Structured Query Language (SQL), and Weka for the data mining part
Key-Words: - Educational information system, IT skills, perceived IT skills, pre-service teachers, following up,
information system architecture
Received: June 15, 2021. Revised: January 12, 2022. Accepted: February 20, 2022. Published: March 23, 2022.
1 Introduction
As societies become more and more digitally
oriented, it is essential to prepare people to master
the use of computers in most human activities. This
objective must be undertaken from primary school
or even from early childhood. Therefore, teachers
are among the first to have the responsibility of
developing the computer skills of their pupils.
Teachers, on the other hand, need to acquire their
own computer skills during their schooling. Having
a tool following up the evolution of their skills
during their college studies will help undertake the
necessary actions to better prepare them for such a
task.
Information and communication technologies (ICT)
skills of teachers, consequently those of pre-service
teachers (hereinafter the “participants” or
“students”), have been a subject of interest for a
long time since computer use started spreading in
most human activities. One of the main challenges
remains to find the best way to teach ICT to pre-
service teachers.
In order to have a better understanding of the
perceived IT skills of pre-service teachers, it is
interesting to (1) have a digital tool to collect the
data about these skills and (2) use different means
allowing various kinds of analysis including several
types of comparisons according to different criteria
and variables. These means will allow us to undergo
quantitative analysis, different kinds of queries, and,
eventually, data mining in order to better understand
current situations (i.e. snapshots at a particular point
of time) and the evolution over an interval of time of
several years.
This article is organized as follows: after the
introduction, section 2 explores the IT skills of pre-
service teachers, section 3 presents the survey used
to collect their perceived IT skills, section 4
describes the educational information system used
to store and process the collected data and, finally,
section 5 concludes this article.
2 IT skills of pre-service teachers
Research suggested that “computer skills instruction
increased students’ technology integration self-
efficacy only when instructors modeled teaching-
related examples and provided students with
multiple mastery experiences of technology
integration practices” [1]. As stated by Charles
Buabeng-Andoh [2], “it is recommended that
courses such as computer-supported learning, ICTs
and designing instructional materials should be
introduced in initial teacher training programs to
improve teachers’ level of confidence and
perceptions towards the use of ICT”. Many various
strategies have been used. For instance, a research
project using intelligent tutoring found that
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approach to be “effective in improving the learning
effectiveness of students with low-level prior
knowledge” [3]. Knowing that “use of technology
takes time and requires a paradigm change for
teachers to adopt it” [4] showed that “computer
ownership, the internet access and amount of daily
computer use do not correlate with the attitude
towards computer-assisted education”, what is more
important is the perceived usefulness and the
enjoyment since they have a positive effect on the
attitude of teachers towards the use of ICT for
teaching.
In our case, we have established a set covering a
wide range of computer applications and
technologies among which pre-service teachers
usually have variable levels of mastery. This range
of computer applications and technologies are the
following:
Use of most current applications: texts,
spreadsheets, forms, presentations
Creating, editing, and managing digital
objects (i.e. image, audio, video)
Use of interactive boards
Use of advanced internet search
Creating and managing websites
Creating online interactive activities
Use of visual programming platforms
Use of digital communication with teachers
and fellows
Use of cloud technology to store data and/or
to use online applications
Use of various computer applications for
learning
The next section presents the approach used to
collect the perceived ICT skills of the pre-service
teachers.
3 The approach used to collect the
data
The approach adopted consists of a survey based on
a questionnaire which will be sent to all of the
students of the teacher training programs of the
Faculty of Pedagogy of Dalat University.
The questionnaire comprises 30 questions, created
using Google Forms. The questions are written in
Vietnamese, followed by their English translation,
and are mainly related to the computer applications
and technologies listed in the previous section.
Other questions relate to the participants' program,
their progress in the program, their gender, the use
of a computer at home, and whether they have
already had an IT course at the university or/and at
the high school.
For most of the questions, the answers are based on
a multiple-choice approach. For instance, the
choices related to the questions about the perceived
IT skills are as follows: Very high, High, Average,
Poor, Very poor, I don’t know what it is.
Prior to sending the questionnaire to the
participants, it was sent to 12 randomly selected
participants, from different programs, in order to
validate their understanding of the questions.
Following this validation step, adjustments were
made to 6 questions in accordance with the feedback
obtained.
The survey will be conducted for four years starting
2021. The link to the questionnaire form is sent to
the participants by email with an explanation about
the purpose of the research project and an invitation
to complete it. For the first survey conducted in late
2021, 381 answers have been received.
Once the responses are received, the answers based
on multiple-choice are transformed to numeric
values according to the correspondence shown in
Table 1:
Table 1. Correspondence between multiple choices
values and numeric values (weights)
Multiple choices values
Weight
Very high
6
High
5
Average
4
Poor
3
Very poor
2
I don’t know what it is
1
No answer
0
This transformation step is named “Weighting” (see
Figure 1, section 4). Thus, it becomes possible to
grant a weight based on numerical values allowing
for multiple kinds of comparisons: between
individuals, between programs, between years in the
programs, etc. Showing the changing over time is
also becoming easier to do.
The next section describes the educational
information system used to store and process the
collected data resulting from the survey.
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4 Description of the following up
educational information system
The approach to creating the educational
information system to follow up on the perceived IT
skills of pre-service teachers is described in Figure
1. This approach uses various computer applications
and fields, namely Google forms, Google
spreadsheets, Structured Query Language (SQL),
and Weka for the data mining part.
Figure 1. The architecture of the following up
educational information system
As mentioned in the previous section, the Google
form comprises 30 questions. This form allows, by
itself, to extract basic information in order to make
comparisons between the different programs,
between the years according to the progress in the
program of the students, between their gender or
whether they own a personal computer or not. These
initial analyses are based on the data such as the
absolute values, the means, and the standard
deviations related to the different answered
questions.
This kind of data suits the analysis of the answers
gathered for a given year: they allow us to have a
snapshot of the situation at a particular point in time.
It is also suited for making comparisons between
several years, i.e., comparing the snapshots taken at
different points of time several consecutive years.
For more complex analysis, especially if we handle
data related to several years, we need more
sophisticated tools. We have decided to use SQL
queries and data mining tools. Let's present them in
turn.
SQL is used to communicate with databases,
independently of their internal representation.
According to the American National Standards
Institute (ANSI), it is the standard language for
relational database management systems. Is it
possible to use this powerful language on
spreadsheets because they are more and more being
used to create and manage information systems that
rely on data repositories that can grow significantly.
Thus, spreadsheets may be seen as databases and [5]
proposed “an expressive and composable technique
where intuitive queries can be defined ... builds on a
model-driven spreadsheet development
environment, and queries expressed referencing
entities in the model of a spreadsheet instead of in
its actual data”. Their proposal has been
implemented relying on Google's query function for
spreadsheets.
Since spreadsheets have become very popular
databases in use nowadays it is possible to “extend
the usage of spreadsheets in any direction as it
provides great flexibility in terms of data storage
and dependency of stored data” [6]. The same
authors “surveyed some of research which took
great attention over spreadsheets and its
applicability in different functional cases, such as
Data Visualization, SQL Engines and many more”.
Dealing with a great number of attributes and sheets
may result in difficulties to implement efficient
databases relying on spreadsheets only. Thus, [7]
suggested another approach based on “importing the
spreadsheet data into a database manager, joining
tables, and performing the analysis using database
querying”.
A similar approach may be found in [8] since they
built an exploration tool, namely DataSpread, “that
holistically unifies databases and spreadsheets”.
In our case, since we don't have too many sheets, we
use, for now, a more conventional solution based on
Google's query function for spreadsheets. This
function allows us to write simple as well as
complex queries based on SQL.
When there will be thousands of questionnaires,
their data can serve as a basis for more sophisticated
processing. At this point, it will be possible to use
data mining tools for performing different data
mining tasks such as data preprocessing,
classification, clustering, association rule mining,
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visualization, These tasks are mainly based on
machine learning algorithms.
Simply stated, data mining is a part of artificial
intelligence techniques used to extract useful
knowledge from raw data. This extracted knowledge
may then be used to help make decisions or better
understand various phenomena. Data mining
techniques are used in many different domains,
including education. A new research area is
emerging and many authors, for instance [9] and
[10], are talking of educational data mining.
We have already chosen the Weka platform, a Java-
based software suite that implements a large number
of machine learning algorithms [11]. This choice
was easy to do not only because we have already
used Weka in previous data mining projects [12]
and also because it is an open-source platform
widely used in the scientific community. Moreover,
it is easy to convert spreadsheets files to Weka-
supported file formats.
5 Conclusion
We have presented an educational information
system to follow up on the perceived IT skills of
pre-service teachers. This information system allows
us to (1) have a digital tool to collect data about
these perceived skills and (2) use different means
allowing different kinds of analysis including
several types of comparisons according to different
criteria and variables. With these means, it will be
possible to undergo quantitative analysis, different
kinds of queries, and, eventually, data mining in
order to better understand current situations (i.e.
snapshots at a particular point of time) and the
evolution over an interval of time.
The analysis of the data resulting from the use of
this educational information system will give rise to
subsequent publications.
Acknowledgment
The author wishes to thank:
- Nguyễn Thị Ái Minh, School of Education,
University of Da Lat, Vietnam, for her support since
the very beginning of the project “A platform to
follow up on the perceived IT skills of pre-service
teachers” and for handling and managing the
questionnaire and the survey
- Messica Bari for her review of this article.
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