c e p s  Journal | Vol.7 | No3 | Year 2017 47
Critical Thinking as a Dimension of Constructivist 
Learning: Some of the Characteristics of Students of 
Lower Secondary Education in Croatia
Tomislav Topolovčan*1 and Milan Matijević2
• The aim of this study was to examine the characteristics of the frequency 
of constructivist learning and its dimensions, including critical thinking, 
the differences in them with regard to certain demographic characteristics, 
and correlations with the frequency of use of certain new media in teach-
ing students in the final grade of lower secondary education in Croatia 
(N = 703). The results show that students assessed a significantly higher 
incidence of critical thinking in relation to the other four dimensions of 
constructivist learning. In respect of every latent dimension of constructiv-
ist learning, (all) students with higher grade point averages are inclined 
towards a higher assessment of the frequency of the personal relevance of 
learning, critical thinking, and collaborative learning. Girls are more likely 
to highlight the personal importance of studying, critical thinking, and stu-
dent negotiation, while there is no difference in the assessments regarding 
gender in the control of studying and the uncertainty of learning with new 
media. Students, regardless of where they live, assess the incidence of gen-
eral constructivist learning equally, also in regard to each dimension, i.e. 
the personal relevance of learning, the uncertainty of learning (with new 
media), critical thinking, shared control, and collaborative learning. The 
frequent use of new media is associated with the increased incidence of all 
the dimensions of constructivist learning. An interpretation of the results 
indicates that critical thinking is by far the most prominent dimension of 
constructivist learning, whereby the gender of students and their grade 
point average are, to some extent, key factors in the differences in critical 
thinking, but also in most other dimensions of constructivist learning. This 
paper explains in detail the didactic implications of its research results.
 Keywords: new media, constructivist learning, critical thinking, sec-
ondary education, students
1 *Corresponding Author. University of Zagreb, Faculty of Teacher Education, Croatia; tomislav.
topolovcan@ufzg.hr.
2 University of Zagreb, Faculty of Teacher Education, Croatia.
48 critical thinking as a dimension of constructivist learning
Kritično mišljenje kot dimenzija konstruktivističnega 
učenja: nekatere značilnosti učencev predmetne stopnje 
osnovne šole na Hrvaškem
Tomislav Topolovčan in Milan Matijević
• Namen raziskave je bil preučiti značilnosti konstruktivističnega učenja 
in njegovih dimenzij, vključno s kritičnim mišljenjem, ugotoviti raz-
like med dimenzijami glede na določene demografske značilnosti in 
njihovo povezanost s pogostostjo uporabe določenih novih medijev pri 
poučevanju učencev v zadnjem razredu osnovne šole na Hrvaškem (N = 
703). Rezultati kažejo, da so učenci kritično mišljenje ocenili statistično 
pomembno višje glede na preostale štiri dimenzije konstruktivističnega 
učenja. Glede na vsako latentno dimenzijo konstruktivističnega učenja 
se (vsi) učenci z višjimi povprečnimi ocenami nagibajo k višjemu 
ocenjevanju pogostosti osebne pomembnosti učenja ter kritičnega 
in sodelovalnega učenja. Dekleta pogosteje poudarjajo osebni pomen 
učenja, kritičnega mišljenja in lastnega soočanja z njim, medtem ko 
pri nadzorovanju učenja in negotovosti pri učenju z novimi mediji 
med spoloma ni statistično pomembnih razlik. Učenci – ne glede na 
to, kje živijo – enako ocenjujejo stopnjo splošnega konstruktivističnega 
učenja, tudi glede na vsako dimenzijo, tj. osebni pomen učenja, nego-
tovost učenja (z novimi mediji), kritično mišljenje, deljeni nadzor in 
sodelovalno učenje. Pogostost uporabe novih medijev je povezana s 
povečano pogostostjo ocenjevanja vseh dimenzij konstruktivističnega 
učenja. Interpretacija rezultatov kaže, da je kritično mišljenje daleč 
najpomembnejša dimenzija konstruktivističnega učenja, pri čemer sta 
spol učencev in njihova povprečna ocena do določene mere ključna de-
javnika pri razlikah v kritičnem mišljenju pa tudi pri večini preostalih 
dimenzij konstruktivističnega učenja. Prispevek natančno pojasnjuje 
didaktične posledice raziskovalnih rezultatov.
 Ključne besede: novi mediji, konstruktivistično učenje, kritično 
mišljenje, predmetna stopnja, učenci
c e p s  Journal | Vol.7 | No3 | Year 2017 49
Introduction
The projects of many creative and innovative teachers at the beginning 
of the 20th century were in line with constructivist teaching. The misconception 
that those who know (teachers) can transfer knowledge to those who do not 
know (students) by lecturing and demonstration faced great competition in a 
new didactic scenario in which students became active subjects who research, 
discover, solve problems, collaborate, and think critically about everything they 
do and learn. Students ask questions and seek answers. They learn individually 
and in small groups. Instead of lecture rooms, schools had classrooms, labora-
tories, and workshops. This happened at the end of the 19th century and during 
the first decades of the 20th century. World War II halted all these revolutionary 
events in Europe, but in the USA the trend of change in class and schools con-
tinued (for more, see Skiera, 2010).
In contrast to the intellectualist school of the 19th century, John Dewey 
(1859-1952) proposed a school in which children learn through independent work 
and research in immediate reality. School was seen as needing to satisfy children’s 
natural interests for learning and becoming acquainted with the world that sur-
rounds them. Learning was to be based on the student’s opinion and other ac-
tivities. Instead of lecture rooms, he insisted on learning in workshops, in the 
kitchen, laboratory, library, in the schoolyard, or in a school garden or an or-
chard. With such didactic scenarios, a student can compare, think, and conclude. 
It can be said that Dewey was among the first pedagogues to clearly point out and 
explain the importance of a student’s opinion and learning by discovering and 
solving problems. In the USA, he was joined by Kilpatrick and Helen Parkhurst.
From the history of pedagogy and didactics, it is clear that critical think-
ing is an essential element of learning and teaching, especially in the move-
ments of reform pedagogy (Oelkers, 2010; Skiera, 2010). Critical thinking was 
considered important as a process of learning, but the question was to what 
extent it was to be taught (Huber & Kuncel, 2015). Critical thinking is not easy 
to define (Huber & Kuncel, 2015; Lai, 2011), which is partly because it can be 
approached from various directions (Lai, 2011; Sternberg, 1986).
Critical thinking can be explained from three points of view: philosoph-
ical, psychological, and educational, or didactic (Lai, 2011; Lewis & Smith, 1993; 
Sternberg, 1986). From the philosophical point of view of critical thinking, Lai 
(2011) summarises the definitions of various authors. From the philosophi-
cal perspective, critical thinking can be defined as ‘reflective and reasonable 
thinking that is focused on deciding what to believe or do’ (Ennis, 1985, p. 45), 
“judging in a reflective way what to do or what to believe’ (Facione, 2000, p. 
50 critical thinking as a dimension of constructivist learning
61), ‘the propensity and skill to engage in an activity with reflective skepticism’ 
(McPeck, 1981, p. 8), and ‘thinking aimed at forming a judgment’ (Baillin et al., 
1990; Ennis, 1985; Facione, 2000; McPeck, 1981, according to Lai, 2011). From 
the perspective of philosophy, critical thinking is seen as the ability to assess 
and take a stand or form a belief, while from the psychological standpoint, it 
is also something that an individual is capable of doing. In other words, it is 
the relationship between what individuals think and what they are ready to do 
(Sternberg, 1986).
In this respect, Lai (2011) points out that critical thinking, from a psy-
chological point of view, can be defined as ‘the mental processes, strategies, and 
representations people use to solve problems, make decisions, and learn new 
concepts’ (Sternberg, 1986, p. 3), ‘the use of those cognitive skills or strategies 
that increase the probability of a desirable outcome’ (Halpern, 1998, p. 450) 
and ‘seeing both sides of an issue, being open to new evidence that disconfirms 
your ideas, reasoning dispassionately, demanding that claims be backed by evi-
dence, deducing and inferring conclusions from available facts, solving prob-
lems, and so forth’ (Willingham, 2007, p. 8; Halpern, 1998; Sterneberg, 1986; 
Willingham, 2007, according to Lai, 2011). The third approach or tradition of 
critical thinking is educational, i.e. didactic. Although it is known that critical 
thinking has a long tradition in European didactics, in this respect, it is based 
on the known taxonomy of the cognitive goals of B.S. Bloom. Thus, according 
to Lai (2011) and Sternberg (1986), the final three levels of cognitive goals, i.e. to 
analyse, evaluate, and synthesise, are considered critical thinking. In addition 
to certain imperfections of critical thinking as conceived in this way, Sternberg 
(1986) emphasises that the advantage of the didactic approach is that it can be 
considered to be based on teaching and learning. Although philosophical, psy-
chological, and didactic approaches offer different concepts of critical thinking, 
Lai (2011) summarised the main mutual elements, that is, some of the features 
of critical thinking. These features include analysing arguments, interventions 
based on inductive or deductive reasoning, assessing, evaluating and decision 
making, and problem solving (Case, 2005; Ennis, 1985; Facione, 1990; Halpern, 
1998; Lipman, 1988, Paul, 1992; Tindal & Nolet, 1995; Willingham, 2007, accord-
ing to Lai, 2011). 
With various traditions and approaches to critical thinking, one of the 
main questions is defining the construct of critical thinking. The traditional ap-
proach to this construct defines it as a broad capacity to interpret information 
and finding the exact way to approach a problem, being applicable to a wide 
range of problems and situations. This approach is criticised due to the ques-
tion of whether critical thinking manifests itself as an analysis of arguments, 
c e p s  Journal | Vol.7 | No3 | Year 2017 51
and whether critical thinking is applicable in different areas. In other words, 
whether critical thinking is applicable in all areas of an individual’s activity, or 
if it is only tied to certain specific activities, work, and domains (Kuncel, 2011). 
In this respect, a question is also raised about whether critical thinking is ‘trans-
ferrable’ from one area to another (Huber & Kuncel, 2015).
The two approaches to conceptualising critical thinking and putting it 
into operation are also tied to this. The first approach is one that defines critical 
thinking as a predisposition, while the second sees critical thinking as a skill 
(for more, see Huber & Kuncel, 2015). For these two concepts of critical think-
ing, special tests for its measurement have been formed. For critical thinking as 
a predisposition, the California Critical Thinking Disposition Inventory (CCT-
DI) is used, while for critical thinking as a skill, the California Critical Thinking 
Skills Test (CCTST) (Huber & Kuncel, 2015) is employed.
Irrespective of whether critical thinking is a predisposition or a skill, 
whether it focuses on a wide range of areas or on a specific one, in the educa-
tional, i.e. didactic context, one of the important questions is whether it can 
be taught, that is, whether one can be taught to think critically (Huber & Kun-
cel, 2015). With this in mind, Hattie (1982, according to Huber & Kuncel, 2015) 
claims that learning is not a predictor of critical thinking.  In contrast, Huber 
and Kuncel (2015) indicate that it is possible to teach and learn critical thinking. 
Several more questions arise in relation to the claim that critical thinking can 
be taught and learned. These questions relate to whether critical thinking is de-
veloped by formal education or informal learning, whether there are changes in 
the extent of learning during education and whether changing the educational 
content in the curriculum can be considered a meaningful factor in developing 
critical thinking (according to Huber & Kuncel, 2015).
Regardless of these dilemmas, and taking into consideration some of 
the mutual features of critical thinking (Lai, 2011; Sternberg, 1986), both as a 
predisposition and a skill, it is justified from the didactic point of view to claim 
that, for the development of students or for eventual teaching and learning, it 
is necessary to have a student-centred approach. This confirms what reform 
pedagogues have claimed: it is the students’ activity that is important. In other 
words, the constructivist class represents a significant contribution to teaching 
and developing critical thinking. Accordingly, Taylor, Fraser and Fisher and 
their associates (Kim, Fisher & Fraser, 2006; Taylor, Fraser, & White, 1994; Tay-
lor, Fraser, & Fischer, 1997) conceived and defined the concept of constructivist 
learning in this way, in which one of its dimensions is critical thinking. Con-
structivism cannot be defined and explained from just one scientific standpoint 
(Philips, 1995). Different approaches, for example, the sciences of sociology, 
52 critical thinking as a dimension of constructivist learning
biology, philosophy, neuroscience, cognitive psychology, and systems theory, 
implement it in their starting framework and interpret it accordingly (Philips, 
1995; Terhart, 2003). Constructivism can be explained as a philosophical (onto-
logically and epistemologically), psychological and didactic approach or theory 
(Kanselaar, de Jong, Andriessen, & Goodyear, 2002).
From the didactic point of view, constructivist learning can be defined 
as a self-regulated, non-linear, and interpretive process of building knowledge, 
supported by interaction with one’s surroundings (Fosnot & Perry, 2005, pp. 
34). In other words, it is not possible to transfer or teach knowledge to some-
one, but it is the individual who constructs their own knowledge based on their 
foreknowledge, emotional state, and own (critical) thinking, in interaction and 
communication with other people or in using objects. Therefore, as features of 
constructivist learning, the following can be noted (Boethel & Dimock, 2000, 
according to Yilmaz, 2008, pp. 167–168): 
1. learning is an active process; 
2. learning is an adaptive activity; 
3. learning is situated in the context in which it occurs; 
4. knowledge is not innate, passively absorbed, or invented but construct-
ed by the learner; 
5. all knowledge is personal and idiosyncratic; 
6. all knowledge is socially constructed; 
7. learning is essentially a process of making sense of the world; 
8. experience and prior understanding play a role in learning; 
9. social interaction plays a role in learning; and 
10. effective learning requires meaningful, open-ended, challenging prob-
lems for the learner to solve.
With such defined and characterised constructivist learning, the teacher 
has a different role from that in a teacher-centred classroom. The teacher is 
no longer a person who possesses knowledge and then transfers it to students 
(since the starting point consists of different ontological and epistemological 
assumptions), but is a co-constructor of the students’ knowledge. From this 
point of view, the concepts of learning and teaching are separated, since it is 
possible to learn without teaching, to learn while being taught (in class), to 
teach without triggering the process of learning, and to learn what is not ex-
plicitly taught (hidden curriculum). Concentrating solely on the terms of the 
learning environment, and starting from it as the focus of the mutual activity 
of students and the teacher (Bognar & Matijević, 2005), teaching means or-
ganising the activities of learning through which students will, by performing 
c e p s  Journal | Vol.7 | No3 | Year 2017 53
activities connected with a certain content, individually or cooperatively, form 
their own knowledge. With this in mind, the features of constructivist learning 
are those that provide (Herrington, Oliver, & Herrington, 2007): 
1. authentic contexts that reflect the way knowledge will be used in real 
life; 
2. authentic activities; 
3. access to expert performances and the modelling of processes; 
4. multiple roles and perspectives; 
5. the collaborative construction of knowledge; 
6. opportunities for reflection; 
7. opportunities for articulation; 
8. coaching and scaffolding; and 
9. authentic assessment. 
With such defined features of constructivist learning, some features of 
encouraging critical thinking can be recognised. These derive mostly from the 
standpoint of the multiple roles and perspectives of certain learning content 
and activities and reflection that encourage the forming of abstract terms. Such 
defined features of constructivist learning are to a certain extent analytically 
set. From the didactic point of view, synthesising all the mentioned features 
allows us to point to certain learning strategies which unite all constructiv-
ist features. We can thus consider (Topolovčan & Matijević, 2016; Topolovčan, 
Rajić, & Matijević, 2017):
1. inquiry-based learning; 
2. problem-based learning; 
3. project-based learning; 
4. cooperative learning; 
5. play-based learning; and
6. learning-by-doing.
These learning strategies are not new. Didactic and pedagogical history 
tells us that they were formed over a hundred years ago in the directions and 
movements of reform pedagogy. It is important to emphasise that neuroscien-
tific research confirms the features of constructivist learning (e.g. Hermmann, 
2009; Sprenger, 1999) and, therefore, also confirms the didactic value of the 
directions and movements of reform pedagogy (e.g. Skiera, 2010). By analysing 
and summarising all the mentioned features of constructivist learning in more 
detail, it can be emphasised that constructivist learning, i.e. constructivist di-
dactics, is essentially a didactic of lifelong learning.
54 critical thinking as a dimension of constructivist learning
In terms of the development and role of computer technologies in edu-
cation, it is justified to say that this research area in education has been one 
of the most dynamic in the last four decades (Tamim et al., 2011). According 
to Tamim et al. (2011), many primary empirical studies on the role of digital 
media in education have been carried out in the last forty years; based on them, 
in the last 30 years or so, more than sixty meta-analyses have been conducted. 
This number of meta-analyses has led to second order analyses based on them, 
which constitute a meta-analysis of meta-analysis (Tamim et al., 2011).
These meta-analyses have shown that in the 1970s and 1980s there was 
a euphoric view of the role of new media in education (Tamim et al., 2011). 
That is, computer (new) media were considered the single factor that greatly 
increased the quality of teaching and the level of achieving the desired out-
comes. It could also be claimed that learning and teaching with digital media 
are equally or even more effective than without it (Schmidt et al., 2009; Torger-
son & Elbourne, 2002). From as early as the 1990s, the effect of media decreased 
significantly, while in the 2000s contrasting results, interpretations, and con-
clusions arose (Rosen & Salomon, 2007; Tamim et al., 2011). In other words, it 
was shown that learning with digital media does not have to be more effective 
than learning without them. Specifically, it was found that new media are not 
the single factor that increases the quality of learning and raises the extent of 
achieving the desired outcomes. It was confirmed that learning is a multivariate 
phenomenon and process in which interrelated factors have important roles, as 
have digital media. Accordingly, it was shown that the important things for the 
quality of learning and achieving the desired outcomes are the type of learning 
outcomes, class content, the individual characteristics of students and teachers 
(the extent and type of foreknowledge, motivation, mental condition, capacity 
for using digital media), types of evaluation, and the didactic organisation of 
learning based on constructivist learning (c.f. Dillon & Gabbard, 1998; Rosen & 
Salamon, 2007; Tamim et al., 2011; Topolovčan & Matijević, 2016; Topolovčan, 
Matijević, & Dumančić, 2016).
The value of new media in classrooms is perceived if the new things they 
offer are analysed more closely. When all the functional novelties are abstracted, 
what is truly different about what digital media offers in class is digital, simul-
taneous, and multi-modal transfer, storing and presenting content, executing 
tasks with the help of digital technology that were (until recently) done manu-
ally, and digitally forwarded communication (adapted from: Kanselaar et al., 
2002). Thus, it can be claimed that using digital media requires activities that 
involve the students in cooperation, research, play, etc., and not presentation 
by the teacher from the front of the classroom. Therefore, the didactic value 
c e p s  Journal | Vol.7 | No3 | Year 2017 55
of using digital media is the fact that they enable inquiry-based and problem-
based learning, individualisation of work, situational (contextual) learning, co-
operative learning and creative learning, that is, learning-by-doing (Kanselaar, 
de Jong, Andriessen, & Goodyear, 2002; Schulz-Zander & Tulodziecki, 2011).
The characteristics of all these activities for living and learning in a digi-
tal environment are also immanent features of constructivist strategies of learn-
ing, such as learning by researching, learning by problem solving, cooperative 
learning, learning by playing, project learning, and action learning (Topolovčan 
& Matijević, 2016; Topolovčan, Matijević, & Dumančić, 2016). However, they 
are also manifest forms of critical thinking. In this regard, critical thinking 
can be viewed as an integral conceptual and practical element of construc-
tivist learning (Taylor, Fraser, & Fischer, 1997), which can also be stimulated 
using digital media (Topolovčan & Matijević, 2016; Topolovčan, Matijević, & 
Dumančić, 2016).
Methodology
Aims
The aim of this research was to examine the features of critical thinking 
as an integral element of constructivist learning. In this sense, the position of 
the dimension of critical thinking in relation to other dimensions of construc-
tivist learning as conceived by Taylor, Fraser, and Fisher (1997) was also the 
subject of examination. Another aim of the research was to find out whether 
there are differences in the dimensions of constructivist learning, and of critical 
thinking, given the gender and place of residence of the students, and the cor-
relation with the final grade average of the previous year and the frequency of 
using certain new media in class.
Sample
The convenience sample comprised students of the eighth grade (N 
= 703). The sample covered fourteen schools in eight counties of Croatia 
(Varaždin County, Međimurje County, Koprivnica-Križevci County, Brod-
Posavina County, Osijek-Baranja County, Primorje-Gorska Kotar County, 
Split-Dalmatia County, and the City of Zagreb). In the subsample of students 
based on gender, there were 334 (47.5%) boys and 369 (52.5%) girls. Consider-
ing their residence, 601 (85.5%) students live in a town/city, and 102 (14.5%) in 
a village. Along with data on gender and residence, one of the attributes of the 
respondents was the frequency of using new media in class. New media include 
computers, the internet, mobile phones, multimedia software, smart phones, 
56 critical thinking as a dimension of constructivist learning
tablets, and social networks. The respondents assessed the frequency of using 
new media: 16.8% of students never use a computer in class, 10.4% use it once a 
month, 14.9% 2-3 times a month, 15.1% once a week, 18.2% several times a week, 
and 24.6% of students daily. A total of 11.8% never use the internet in class, 8.7% 
once a month, 16.4% 2 to 3 times per month, 13.8% once a week, 16.6 % several 
times per week and 32.7% use it daily. Mobile phones are never used in class 
by 25.7%, once a month by 9.1%, 2 to 3 times per month by 14.9%, once a week 
by 8%, several times per week by 10.8% and daily by 31.4% of students. 37% of 
students never use multimedia software in class, 17.2% use it once a month, 
16.6% 2 to 3 times per month, 10.1% once a week, 8% several times per week, and 
11.1% use it daily. 57% of students never use tablets in class, 7.8% use them once 
a month, 10.8% 2 to 3 times per month, 3.3% once a week, 9.1% several times 
per week and 11.9 % use them daily. 36% of students never use smart phones 
in class, 7.8% use them once a month, 12.5% 2 to 3 times per month, 8% once a 
week, 9.8% several times per week and 25.9 % use them daily. Social networks 
are never used in class by 24.9% of students, once a month by 9.5%, 2-3 times 
per month by 13.8%, once a week by 9.2%, several times per week by 12.2%, and 
daily by 30.3% of students. The data were collected in 2014.
Instruments
Data were collected using the pen-and-paper method, in the form of a 
questionnaire. The first part of the questionnaire comprised demographic data: 
gender (male/female), residence (city/village), final grade average in the previ-
ous year, and the frequency of using a computer, the internet, mobile phone, 
multimedia software, tablet, smart phone and social networks, measured with 
a six-point scale (1 = never, 2 = once a month, 3 = two to three times per month, 
4 = once a week, 5 = several times per week, 6 = daily). The data on the character-
istics of constructivist learning, and with that critical thinking, were collected 
using the Constructivist Learning Environment Scale (CLES) (Taylor, Fraser, 
& White, 1994; Taylor, Fraser, & Fisher, 1997. This instrument comprises five 
factors and thirty-five Likert type five-point items (1 = never, 2 = rarely, 3 = oc-
casionally, 4 = often, 5 = almost always) and every mentioned factor comprises 
seven manifest statements. The Personal Relevance factor refers to the impor-
tance of learning as perceived by respondents. The New Media Uncertainty fac-
tor originally referred to uncertainty in mathematics, but since this factor may 
relate to any teaching area (mathematics, science, etc.), it can be modified into 
uncertainty of learning using new media. The Critical Voice factor focuses on 
critical thinking, the multiplicity of perspectives, reflection and selection skills. 
The Shared Control factor refers to the ability to plan learning, participation 
c e p s  Journal | Vol.7 | No3 | Year 2017 57
in planning educational activities and self-regulated learning. Student Negotia-
tion focuses on collaborative learning, understanding, and negotiation about 
learning activities. With an exploratory factor analysis (PCA, Varimax rota-
tion) (KMO = .917; Bartlett’s test of sphericity c2 = 3207.31; p = .00) and an 
eigenvalue greater than 1, eight factors that explain 55.98% of the total variance 
were obtained. The threshold for factor loadings was .40. This kind of structure 
does not sufficiently replicate the original factor structure of the instrument, so 
a quasi-confirmatory FA with five factors was carried out. 
Table 1
Factor structure of the Constructivist Learning Environment Scale
Statements 1 2 3 4 5
32. It’s OK to speak up for your rights (CV) .67
27. I’m free to express my opinion (CV) .66
21. It’s OK to complain about anything that stops me from learning (CV) .66
15. It’s OK to complain about activities that are confusing (CV) .55
26. By using new media, I can learn a lot about the world around me (UNM) .52
17. I try to make sense of other students’ ideas (SN) .48
19. I get a better understanding of the world outside of school (PR) .48
16. I have a say in deciding the rules for classroom discussion (SC) .47
31. I learn that today’s new media is different from the media of long ago (UNM) .40
5. I get the chance to talk to other students (SN)
22. I have a say in deciding how much time I spend on an activity 
40. I have a say in deciding how my learning is assessed (SC) .68
34. Other students explain their ideas to me (SN) .66
33. I have a say in deciding what will be in the test (SC) .63
23. I ask other students to explain their ideas (SN) .58
41. Other students pay attention to my ideas (SN) .57
10. I help the teacher decide how well my learning is going SC) .57
4. I help the teacher to plan what I’m going to learn (SC) .57
28. Other students ask me to explain my ideas (SN) .52
39. I feel unable to complain about anything (CV) .45
11. I talk with other students about how to solve problems (SN)
37. What I learn has nothing to do with the world outside of school (PR) .66
29. I feel confused (SN) .63
30. What I learn has nothing to do with my out-of-school life (PR) .60
3. It’s OK to ask the teacher ‘Why do we have to learn this?’ (CV) .53
14. I learn how the new media are constructed. (UNM) -.75
20. I learn about various kinds of new media used by people in other cultures (UNM) -.70
13. I learn how I can use new media outside the classroom (school). (UNM) -.64
8. I learn how the new media have changed over time. (UNM) -.63
38. I learn how the new media can help me discover many rules in nature. (UNM) -.42
25. I learn about interesting things in the world outside the classroom (school) (PR)
1. I learn about the world outside the school (PR) .73
58 critical thinking as a dimension of constructivist learning
Statements 1 2 3 4 5
2. I learn that the new media can give perfect answers. (PR) .52
9. I feel free to question the way I’m being taught (CV) .41
7. New learning starts with problems about the world outside the school (PR)
Eigenvalue 9.12 2.60 1.77 1.56 1.26
% of explained variance 12.8 9.3 8.72 5.78 5.32
Note. CV = Critical Voice; SC = Shared Control; PR = Personal Relevance; UNM = Uncertainty about New Media; 
SN = Student Negotiation (the abbreviations for the factors are from the original factor structure). 
A quasi-confirmatory five-factor FA explains 46.63% of the total vari-
ance (Table 1). The first factor consists of nine items, out of which four are from 
the Critical Voice factor, which is why this is considered the Critical Voice fac-
tor, although it also contains two items of the Uncertainty of New Media factor, 
and one from the Personal Relevance of learning, Shared Control and Student 
Negotiation factor. The second factor comprises nine items, of which four are 
from the Shared Control factor; it also consists of four particles from Student 
Negotiation and one from the Critical Voice factor, so it is unclear as to what fac-
tor can be considered. The third factor consists of four items, of which two are 
from the Personal Relevance of Learning factor, one from the Critical Voice and 
one from the Student Negotiation factor. Since two items are from Personal Rel-
evance, it can be considered that this structure gravitates towards that factor. The 
fourth factor is represented by five items from Uncertainty of New Media, so this 
structure gravitates towards the Uncertainty of New Media factor. The fifth fac-
tor comprises three items, two of which are from Personal Relevance, and one is 
from Uncertainty of New Media, so it is unclear which factor can be considered.
Table 2
Descriptive features of the Constructivist Learning Environment Scale
Subscale UNM CV SC SN N of  statements M SD Min Max
α
1. Personal relevance .61** .48** .35** .50** 7 3.24 0.69 1 5 .63
2. New media uncertainty .52** .39** .50** 7 3.28 0.81 1 5 .78
3. Critical voice .47** .52** 7 3.35 0.77 1 5 .71
4. Shared control .62** 7 2.63 0.75 1 5 .72
5. Student negotiation 1.0 7 3.07 0.74 1 5 .72
Note. CV = Critical Voice; SC = Shared Control; PR = Personal Relevance; UNM = Uncertainty about New Media;  
SN = Student Negotiation. 
*p< .05. **p< .01.
The structure obtained using quasi-confirmatory FA shows that this 
kind of structure is not sufficient to replicate the original factor structure of the 
c e p s  Journal | Vol.7 | No3 | Year 2017 59
instrument; therefore, five composite dimensions were constructed with the 
original number of manifest items of the Constructivist Learning Environment 
scale. The cross correlations of factors are satisfactory (Table 2). Given this, an 
original factor structure of instruments was implemented.
Statistical data were processed and analysed by means of the SPSS 20.0 
software package. Non-parametric tests were used because the data did not 
meet the criteria for parametric tests, since the data had been collected through 
a Likert scale (ordinal scale). A Friedman test was used to examine the differ-
ence between the dimensions of constructivist learning, a Mann-Whitney U 
test was used to determine the differences between the dimensions of construc-
tivist learning with regard to gender and place of residence, and a Spearman 
correlation test was used to examine the correlations.
Results and Discussion 
In terms of the research question, if there is a difference in assessing the 
dimensions of constructivist learning, i.e. if the dimension of critical learning 
is different than other dimensions, the Friedman test results indicate that there 
is a statistically significant difference among the dimensions of constructivist 
learning χ2 (4, n = 703) = 610,426; p < .001 (average values and standard de-
viations are shown in Table 1). In other words, it was seen that students as-
sess Critical Voice (Thinking) (Mdn = 3.42) as most the frequent, and after that 
New Media Uncertainty (Mdn = 3.28), Personal Relevance (Mdn = 3.27), Student 
Negotiation (Mdn = 3.14) and Shared Control (Mdn = 2.57). These results are 
in contrast to some of the previous ones (Taylor, Fraser, & White, 1994; Nix, 
Fraser, & Ledbetter, 2003), since they indicate that the dimension of Critical 
Thinking is not the most frequent one. Differences among the results could 
be explained by cultural differences between samples and different teaching 
practices. They can also be explained by the foreknowledge and experience of 
the students (which are subject to different teaching practices), because it has 
been shown that richer learning experience can be important for a higher level 
of critical thinking. This is also confirmed by the connection between criti-
cal thinking and constructivist learning; it has been shown that students with 
less experience in solving different tasks profit more by learning from direct 
teaching, as opposed to constructivist learning (Kalyuga, Chandler, & Sweller, 
2001). In other words, students with more foreknowledge can learn better in the 
constructivist way. A similar finding is also claimed by Reid, Zhang, and Chen 
(2003) and Lee and Chen (2009) who, based on their research, show that more 
successful students better organise the conditions for constructivist learning. 
60 critical thinking as a dimension of constructivist learning
Although, in contrast, when separately comparing critical thinking and con-
structivist learning, those two concepts are connected (Bošnjak, 2009). 
Table 3
Differences in constructivist learning regarding gender
Personal Relevance New Media Uncertainty Critical Voice Shared Control
Student 
Negotiation
M SD Mdn M SD Mdn M SD Mdn M SD Mdn M SD Mdn
Boys 3.18 .85 3.21 3.29 .85 3.29 3.45 .88 3.42 2.67 .77 2.71 3.07 .88 3.07
Girls 3.29 .68 3.28 3.27 .77 3.28 3.79 .74 3.79 2.59 .72 2.57 3.13 .72 3.14
U 55626.5* 60411.0 52418.0** 58259 55337*
z -2.236 -0.452 -3.430 -1.251 -2.342
Note. *p< .05. **p< .01.
Considering the research question about whether there are differences in 
the dimensions of constructivist learning regarding gender, the Mann-Whitney 
U test showed that, in respect of any latent dimension of constructivist learning 
(Table 3), girls assess that they often pay attention to the personal importance of 
learning and critical voice, while the boys do so occasionally. These results can be 
interpreted in such a way that, possibly, the girls have higher intrinsic motiva-
tion for learning, which then also implies critical thinking. It is also reasonable 
to explain these results with certain individual cognitive gender characteristics 
obtained in some studies, interpreted by Zarevski, Matešić, and Matešić (2010). 
It is also possible that girls have a more pronounced critical voice because they 
have more prominent verbal, social and communication skills (elements of so-
cial constructivism) which may be important for the formation of critical think-
ing. Indeed, the importance of communication, verbal and social skills confirms 
the result that girls have more pronounced student negotiation than boys. It can 
therefore justifiably be recommended that boys be encouraged through student-
centred didactic arrangements to develop communication skills and critical 
thinking that would eventually increase the intrinsic (personal) relevance of 
learning. In contrast, girls and boys occasionally perceive the uncertainty of new 
media, control (of learning) and student negotiation in the context of construc-
tivist learning. These (descriptive) results show that constructivist learning and 
teaching still do not dominate in Croatian schools. The results that there are no 
gender differences in individual dimensions are in line with the results of Her-
mans et al. (2008) who claim that there are no differences in constructivist learn-
ing.  The fact that there are no gender differences is also in line with the results 
c e p s  Journal | Vol.7 | No3 | Year 2017 61
of neutralising cognitive gender differences (mostly in intelligence), as shown by 
Zarevski, Matešić and Matešić (2010). This result can also be interpreted by mod-
ern cultural-social changes in the perceptions of gender roles and prejudice.
Table 4
Differences in constructivist learning considering residence
Personal Relevance New Media Uncertainty Critical Voice Shared Control
Student 
Negotiation
M SD Mdn M SD Mdn M SD Mdn M SD Mdn M SD Mdn
City 3.24 .71 3.28 3.27 .83 3.28 3,35 .78 3.42 2,63 .76 2.57 3,08 .74 3.14
Village 3.2 .55 3.21 3.33 .65 3.42 3,39 .69 3.42 2,58 .65 2.57 3,05 .69 3.14
U 28745.0 29593.0 30239.0 29483.5 29761.5
z -1.008 -0.218 -1.646 -0.617 -0.470
Note. *p < .05. **p < .01.
Regarding the research question about whether there are differences in the 
dimensions of constructivist learning regarding residence (Table 4), the Mann-
Whitney U test shows that there are no differences in any dimension. In other 
words, students who both live in the city and in the village assess the frequency of 
all dimensions of constructivist learning equally; that is, personal Relevance, New 
Media Uncertainty, Critical Voice (Thinking), Shared Control and Student Negotia-
tion, along with the fact that the Shared Control dimension has the lowest assess-
ment. These results imply that there are fewer differences among students from 
rural and urban areas, which can also be interpreted with the role of informal 
learning and using new media (Toplak, Topolovčan, & Matijević, 2013), primar-
ily the internet and social networks. These results are encouraging because they 
indicate that neither the location of the school nor the residence of the students 
is crucial to the quality of teaching and learning, which to some extent indicates a 
reduction in geographical differences that has also been identified in some educa-
tion systems, for example, Finland (Sahlberg, 2012).
Furthermore, regarding the research question about whether there is a 
connection between the assessment of the dimensions of constructivist learning 
and the final grade average and the frequency of using computers, the internet, 
mobile phones, multimedia software, tablets, smart phones, and social networks 
in the classroom, the Spearman correlation test was used (Table 5). The test shows 
that students with a higher final grade average are more inclined towards Personal 
Relevance, New Media Uncertainty, Critical Voice and Student Negotiation than 
students with a lower final grade average are. However, there is no correlation 
62 critical thinking as a dimension of constructivist learning
between the final grade average and Control of Learning. The fact that students 
with a higher final grade average are more inclined towards more frequent con-
structivist learning (and in four dimensions) could be explained and justified if 
we assume that they have better foreknowledge, but this has no firm theoretical or 
practical basis from the didactic point of view. However, this result is in line with 
the statements of Kalyuga, Chandler and Sweller (2001), Hermans et al. (2008), 
Lee and Chen (2009), and Reid, Zhang, and Chen (2003) who point out that stu-
dents with better foreknowledge show better constructivist learning. Neverthe-
less, one should be cautious with such an interpretation, especially because there 
is no connection between success in school and the Shared Control dimension, 
which can be an indicator of learn-how-to-learn competence. It should also be 
pointed out that the outcomes of learning should not be measured with conven-
tional instruments for teacher-centred classes (Rosen & Salomon, 2007). Another 
significant reason for cautious interpretation is that the control of learning is an 
inner condition of learning while grades are an external motivator and an outer 
condition of learning (Cindrić, Miljković, & Strugar, 2010), which puts it within 
the teacher’s competence, not the student’s.
Table 5
The correlation of frequency of constructivist learning with the frequency of 
using new media and final grade average
Factors Grade Computer Internet Mobile phone
Multimedia 
software Tablet
Smart 
phone
Social 
networks
Personal Relevance .11** .11** .14** .07 .05 -.02 .09* .12**
New Media Uncertainty .08* .11** .13** .07 .15** .03 .15** .12**
Critical Voice .13** .09* .11** .07 .11** .06 .05 .08*
Shared Control .04 .12** .12** .08* .15** .12** .08* .11**
Student Negotiation .14** .11** .13** .07* .08* .03 .10** .11**
Note. *p < .05. **p < .01.
Spearman’s correlation test (Table 5) shows that students with a higher 
final grade average in school more often assess the personal importance of learn-
ing, they doubt certain aspects of the role of new media, they have a critical voice 
(opinion) and negotiate more often. Furthermore, it shows that the more frequent 
importance of learning is connected to the more frequent use of computers, the 
internet, smart phones, and social networks in class. More frequent uncertainty 
about new media is connected to the more frequent use of computers, the inter-
net, multimedia software, smart phones and social media in class. Critical voice, 
c e p s  Journal | Vol.7 | No3 | Year 2017 63
that is, more frequent critical thinking, is connected to the more frequent use of 
computers, the internet, multimedia software and social networks. A more fre-
quent sense of control over the individual’s own process of learning is connected 
to the more frequent use of computers, the internet, mobile phones, multimedia 
software, tablet computers, smart phones and social networks. More frequent 
student negotiation is connected to the more frequent use of computers, the in-
ternet, mobile phones, multimedia software, smart phones and social networks. 
These results can be interpreted by the fact that today’s students are members of 
the net generation which means that new media are their everyday tools. Con-
sequently, the results partly confirm the results of other studies (Topolovčan & 
Matijević, 2016; Topolovčan, Matijević, & Dumančić, 2016).
Conclusion
The results of this research support the following conclusions. Critical 
thinking, apart from being an integral element of constructivist thinking, is also its 
most dominant dimension. This implies that it is possible to develop critical think-
ing with constructivist teaching and learning. Furthermore, it is evident that the 
place of residence of students (the location of the school) is not an important factor, 
neither in critical thinking nor in other dimensions of constructivist learning. On 
the other hand, the gender of students is important: female students are more in-
clined towards critical thinking, attributing importance to learning and cooperative 
learning. Although students with a higher final grade average are more inclined to 
critical thinking and to all the other dimensions of constructivist thinking (except 
control of learning), it is not possible to claim with certainty that the final grade 
average itself is significant for such a connection. This is especially so because of 
the worrying shortcomings of numerical grading. The more frequent use of new 
media in class, mostly computers, the internet, multimedia software, smart phones, 
and social networks, is connected to the more frequent constructivist thinking, but 
also to critical thinking: it is possible to interpret the use of new media as important 
for constructivist learning, but also for critical thinking, because new media are 
an integral element of the environment of learning of the net generation. From a 
theoretical and comparative analysis, a review of recent results of empirical studies, 
and based on the results of this empirical study, it is evident that critical thinking is 
an essential element of education. However, it is also indicated that critical think-
ing cannot be developed through a teacher-centred approach, but rather by means 
of student-centred classes: constructivist learning, in other words. In this respect, 
and to obtain more complete results, it would also be desirable to explore critical 
thinking by comparing primary and secondary education, and then to compare the 
64 critical thinking as a dimension of constructivist learning
students’ and teachers’ assessments and a range of other factors such as learning 
styles, desired orientations of learning, computer self-efficacy, etc. Of course, these 
are the limitations of the current study, but at the same time a recommendation for 
future research. Based on these results, it is recommended in practice to organise 
constructivist learning, but also with new media, because in such a way it would be 
possible, to a certain extent, to develop critical thinking.
Acknowledgment
This study was conducted at the Faculty of Teacher Education of the 
University of Zagreb as part of the research project ‘School for the Net-Genera-
tion: Internal Reform of Primary and Secondary School Education’ (2015–2017) 
funded by the Croatian Science Foundation.
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Biographical note
Tomislav Topolovčan, PhD (Educational Science – Didactics), 
graduate primary education teacher with an additional qualification in Art. As-
sistant Professor at the Faculty of Teacher Education in Zagreb, where he lec-
tures in Didactics, Media Pedagogy, and Qualitative and Quantitative methods. 
Milan Matijević, PhD (Pedagogy), graduate teacher of Pedagogy 
and Sociology. Professor at the Faculty of Teacher Education in Zagreb, where 
he lectures in Didactics, Alternative Schools, Methodology of Teaching the So-
cial Sciences, and Methodology of Research in the Social Sciences.