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Flipping an on-campus general English course: a focus on technology complexity of instruction and learners’ levels of impulsivity


The current study compared the effects of two types of flipped instruction (FI) (low- and mid-tech) with two other class conditions, a blended course and a conventional teaching, on learning outcome of language learners with different levels of impulsivity in an on-campus General English (GE) course. To attain such a goal, four GE classes consisting of 100 freshmen (25 students in each class) were selected and organized into 3 experimental (mid-tech FI, low-tech FI, blended instruction) and 1 control group (conventional teaching). In low-tech flipped class, the students were provided with the vodcasts and podcasts of the instructor’s teaching. For the mid-tech flipped class, the podcasts and vodcasts were integrated into an educational website where all instructional and supplementary materials were available. The blended group accessed the educational website after the instructor’s teaching as the extension of the class activities. The control group received the GE conventional instruction (chalk and talk approach). The participants’ learning outcome was assessed by reading paper of Preliminary English Test and their level of impulsivity was measured by BIS-11. The quantitative data were analysed by a two-way analysis of variance (ANOVA) and the results revealed a statistically significant difference in reading proficiency of the four groups after the study, in favour of the mid-tech FI. Moreover, while the type of instruction had no effect on reading proficiency of students with different levels of impulsivity across groups, within group comparisons revealed that only mid-tech group members with different levels of impulsivity benefited equally from the instruction. The results of the qualitative data analysis revealed that the majority of students in both groups had positive attitudes towards the experience, although they expressed their needs for some modifications in teacher role, their own role, and the way the instructional materials are prepared and presented.


The advancement of technological devices and their ubiquitous presence in everyone’s life in the twenty-first century has directed the attention of pedagogues and researchers to the advantages of mingling technology-based learning environments with learner-centred approaches to amplify the benefits of both. Flipped classroom is one such approach that claims to establish “a framework that ensures students receive a personalized education tailored to their individual needs” (Bergmann & Sams, 2012, p. 6) by benefiting from very simple technologies of digital media recording. The idea of flipping a class seems to be superficially very simple: “events that have traditionally taken place inside the classroom now take place outside the classroom and vice versa” (Lage et al., 2000, p. 32). The accumulation of knowledge on flipped classes by the passage of time, however, has shown that neither the definition nor the execution of the flipped classroom is that simple.

The role of technology in flipped instruction (FI) and the way the instructional content is developed and appropriately integrated into the cycle of teaching is one major concern of flipping the course. While simple technologies of recording the teacher’s lectures have been prevalently used in prototypical models of FI, the role of technology in FI has sparked controversy among researchers recently (e.g., He et al., 2016). Although a few studies have investigated the integration of different types of technologies into FI (e.g., Hung, 2015, 2017; Jensen et al., 2018), it is relatively unknown if heightening the level of technology complexity in preparing and delivering the instructional content in flipped classes would affect the learning gain.

Another issue that is in need of further attention in FI literature is the way diverse groups of leaners are influenced by inversing the course. The flipped class is claimed to take account of students' problems in learning including poor learning strategies, lack of motivation to learn and lack of interest in certain subjects by personalizing teaching–learning processes and meeting students’ individual needs (Bergmann & Sams, 2012). In spite of this, most studies on FI have vastly focused on general advantages and disadvantages of this approach (Akçayıra & Akçayırb, 2018) rather than the way people with diverse backgrounds behave when the class is flipped.

A third concern to address in FI research is the huge surge of interest in examining the role of FI in science and engineering classes and the scarcity of research in certain areas such as humanities. Most studies on FI have been done in the context of higher education in Natural sciences and Medical courses (e.g., See & Conry, 2014; Awidi & Paynter, 2019; Yilmaz, 2017). In this regard, one particular subject matter that is in need of further consideration in FI research is foreign language teaching and learning as the dynamics of the flipped class, the interaction between students and the teacher, the patterns of collaboration (Mehring, 2018) through social, active and discovery learning, are all in alignment with underpinnings of language teaching and learning. Recently, research on the effectiveness of FI on language learning is booming (e.g., Al-Harbi & Alshumaimeri, 2016; Zarrinabadi & Ebrahimi, 2019; Zhang et al., 2016) but still empirical evidence to draw firm conclusions about how FI affects language learning is insufficient.

Considering the above-mentioned issues, the current study considers the impact of technology type (low-tech vs. mid-tech) in preparing FI pre-class content on learning gains of learners with different levels of impulsivity in a General English (GE) course in the context of higher education. The goal of this study is threefold:

  1. a.

    comparing the effects of two prevalent types of flipped classes, the one that uses the instructor’s vodcast/podcast (low-tech) and the one that uses an online website with pedagogically organized materials (mid-tech) on the development of English reading proficiency;

  2. b.

    comparing the effects of FI with two other class conditions, that is a blended course and a conventional teaching (chalk and talk approach) on the development of English reading proficiency; and

  3. c.

    incorporating the participants’ levels of impulsivity into the design of the study and comparing the effects of four instructional conditions on the development of their English reading proficiency.

Review of literature

The role of technology in FI

One main concern about FI first and foremost arises from the idea of using technology to invert or flip the class. While some researchers believe and empirically supported the fact that technology is not an essential component of flipped classroom (Moravec et al., 2010), some think that the two themes are inextricably interwoven (Bishop & Verleger, 2013; Lage et al., 2000). A glimpse of the review studies done on flipped classrooms suggests that researchers have shown interest in both ideas and do not seem to consider them as polar opposites. In their review study that examined publications on flipped classes till 2016, Akçayıra and Akçayırb (2018) reported that while a majority of the out-of-class content was mainly designed by simple technologies of recorded videos (79%), reading materials were also used by almost half of the researchers for preparing the out-of-class content. Based on this review, very few studies (less than 7%) have used online modules or interactive software programs in flipped classes. In a recent study, Han and Klein (2019) reported that half of the works published within the science and health profession courses till 2017 benefited from reading assignments as pre-class learning activities in flipped classes and the other half used video lectures or online modules.

As to disagree with the idea of associating the notion of flipped class with technology, He et al. (2016) asserts that “qualifying instructional medium is unnecessary and unjustified” (p. 61) for FI and thus any model that includes an obligatory pre-class learning followed by in-class active learning with mandatory class attendance can be called a flipped class. Mehring (2018) also believes that although technology has made flipping the class easier, what should be the focus in implementing the flipped approach is “a pedagogical change and not a technological one” (p. 1). In agreement with this, Brown (2018) proposes the continuums of course content preparation as high quality versus homemade, personal touch versus a curated blend of sources, simplicity versus an engaging mix of media and formats, and high tech versus low tech (pp. 16–17) in which the role of technology complexity is implied in preparing the materials for the flipped class.

In spite of the continuing controversies over the role of technology in flipped classrooms, the provision of studies which have used solely reading materials for the pre-class phase (no-tech content) is not limited. Textbook reading is one of the commonest assignments given to students for the pre-class phase. Other reading materials include guided readings (such as handouts and worksheets) and primary literature (Han & Klein, 2019).

Low-tech out-of-class content in flipped classes fundamentally consists of video or audio recordings of the instructor’s teachings that can be captured by simple devices such as mobile phones (vodcasts/podcasts) or desktop software (screen-casting/voice over Microsoft PowerPoint presentations) (Crawford & Senecal, 2017). Due to the fact that the basic definition of a flipped classroom is closely associated with this type of technology that does not demand high IT literacy, the studies that used low-tech materials dominate the literature (Akçayıra & Akçayırb, 2018). The combination of no- and low-tech contents is also quite prevalent where video lectures are given to students with reading materials as out-of-class activities (e.g., Gilboy et al., 2015).

Mid-tech systems such as online modules can also be used to prepare pre-class activities of a flipped class. These include either ready-made platforms that can be used by teachers for uploading their content or open source systems that can be customized to the needs of the class by programming. Mostly, different types of LMSs like Moodle (Bakla, 2018), Edmodo (Al-Harbi & Alshumaimeri, 2016), and Blackboard (Fadol et al., 2018) or local LMSs (Yilmaz, 2017) are used to upload the ready-made content (such as the instructor’s video recordings, readings, quizzes, assignments, etc.). Some researchers used recorded videos from TED.Ed Talks (Hung, 2017), You Tube (Sengel, 2016), or Khan Academy (Martin et al., 2013) related to the subjects of the lessons. Online lesson plan formats like WebQuest (Hung, 2015) or social media such as LINE (Hsieh et al., 2017) or Telegram (Haghighi et al., 2019) have also been integrated into the pre-class phase due to their ease of use.

Contrary to expectations, a limited percentage of pre-class materials have been produced with high-tech systems or Intelligent Tutoring Systems (ITSs) for the flipped classes (e.g., Mohamed & Lamia, 2018; Strayer, 2012). Due to the fact that the architecture of ITS consists of essential components such as domain, student, tutoring, and interface models to make the system capable of making smart decisions about tutoring strategies and actions, its development needs sophisticated IT literacy, extended time, and financial resources from the teacher’s side and involvement of program developers.

Based on the reviewed studies, a continuum of technology complexity for preparing the out-of-class content of the flipped classroom is deduced (Fig. 1). The continuum is used in the current study to differentiate two FI conditions, that is mid-tech FI from low-tech FI, and compare their effects for reaching the goals of the study. The provided examples are taken from the literature and the list is by no means exhaustive.

Fig. 1
figure 1

The continuum of technology complexity for preparing the out-of-class content of FI, deduced from the literature, to differentiate two FI conditions in the current study

It is also noteworthy to mention that the continuum addresses the technology complexity that has been utilized in FI content preparation with respect to three basic criteria: teacher IT literacy, the need to programing knowledge, and the presence of ITS architecture. As a matter of fact, from low-tech to mid- and high-tech, the need for expected IT literacy of the teacher, programming knowledge, and inclusion of features of ITS architecture in the system becomes absolutely essential.

The role of instructional practices in flipping the class

The way the teaching content is prepared and delivered to students in FI raises a second concern, that is how the whole class is planned, how the out-of-the class materials are organized coherently and how they are linked to in-class activities. It is believed that “only instructing students to watch a video or read a book outside the class is a recipe for failure in the flipped classroom” (Zainuddin, 2018, p. 76). The main challenges reported in the literature with respect to this issue are students’ limited preparation before class, the degree of support and assistance they can get while doing out-of-class activities, their need to guidelines at home, and their increased out-of-class workload (Akçayıra & Akçayırb, 2018). It is evident that most of the time students do not do pre-class assignments because they are not clearly instructed (Brunsell & Horejsi, 2013) and they do not know what to do (Çakıroğlu & Öztürk, 2017). This can be related to teachers’ problems in implementing the flipped approach, managing the tasks, and planning the sequences of the activities (Akçayıra & Akçayırb, 2018). To resolve this issue, recently some studies have combined innovative strategies with the flipped class to increase students’ participation in pre-class and in-class activities. Incorporating the elements of games (e.g. scores, points, badges, and leader boards) into FI (Zainuddin, 2018), using in-flip class strategy where out-of-class activities take place in class environment (Fethi & Marshall, 2018; Ramirez, 2018), and designing the learning activities of the flipped course with reference to the principles of self-regulation (Ng, 2018) are among such works.

Considering the fact that the flipped class needs “planned instructional strategies” (Shyr & Chen, 2018, p. 1) and sound pedagogical premises for preparing the content and integrating the instructional materials and activities, a few studies have compared the effects of flipped classes with different types of pre-class and in-class materials or activities. Hung (2015) compared two types of flipped courses called structured and semi-structured with a non-flipped class. The structured flipped class consisted of organized materials in WebQuest and the semi-structured flipped class consisted of videos taken from TED-Ed. The results showed that learners’ academic performance of the structured group was higher than the other two groups. In another study, Hung (2017) compared two flipped conditions of in-class interaction (just in time teaching vs. peer interaction) and reported that the peer interaction condition led to better learning, satisfaction with the flipped class, and willingness to communicate among the participants. Jensen et al. (2018) examined three methods of pre-class content learning in three flipped courses, i.e., interactive online tutorials, video lectures, and textbooks readings in a biology course. Their findings showed that video lectures offered a small advantage to overall student learning in comparison to other two content learning strategies.

FI and individual differences

To address the diversity factor, some studies have focused on the demographic and background differences of the learners to scrutinize the effect of FI on their leaning gains. He et al (2016) assessed the impact of FI on students’ out-of-class study time, exam performance, preference, motivation, and perceptions; and observed that students of diverse backgrounds (major, education level, and gender) benefited uniformly from the course. In another study, Hsieh et al. (2017) assessed technology acceptance among EFL learners utilizing a mobile-based flipped class and reported certain differences in the construct relationship among students of different proficiency levels. Bakla (2018), in a study on the effectiveness of student-generated materials in a flipped course, examined the participants’ contribution and concerns about creating the content while their digital literacy level was taken into account. Walsh and Rísquez (2020) identified hidden patterns of students’ online behaviour in a flipped classroom environment and reported a difference between native and non-native English speakers assuming that language proficiency and cultural background are among the factors to be considered in FI. In a recent study, Strelan et al. (2020) carried out a meta-analysis of the effects of the flipped classes on student performance across disciplines and education levels. The finding suggests that the effect is magnified among secondary students while it remains unchanged in tertiary settings. Also, relatively weak to moderate effects are reported for health sciences, IT, mathematics, business, and medical and physical sciences; while moderately strong to strong effects for engineering, teaching and humanities have been observed.

FI and learning styles

Learning style refers to “an individual’s preferred way of processing information and of dealing with other people” (Ellis, 2008, p. 535). In this framework, the cognitive style is specifically an individual’s preferred approach to representing and organizing information (Riding & Rayner, 1998). As one of the dichotomies of cognitive style, impulsivity/reflectivity is generally associated with “conceptual tempo which embraces the idea of the time spent on completing a task (Michonska-Stadnik, 2013, p. 138) . Impulsive learners generally make a quick guess to answer a question or solve a problem and lack accuracy. Reflective learners, in contrast, think deeply to solve problems and make more calculated decisions (Brown, 2007).

Some studies have reported that impulsive and reflective language learners have distinct learning preferences such as personal preference for communicative strategies, language learning strategies, and types of classroom interaction (e.g., Soltani et al., 2015). The impact of cognitive styles on students’ benefit from computer-assisted language learning environment is also evident (e.g., Chapelle & Fraiser, 2009).

Although FI has been reported to be an ideal instructional approach to address students’ diversity by tailoring the content to their preferred ways of learning, research on the effectiveness of FI on learning performance of students with different learning styles or strategies is rare. In their study, Chen et al. (2014) examined the effectiveness of a flipped course on students’ satisfaction of the course, attendance, and study effort and reported that highly motivated students performed much better than less motivated students. Chen et al. (2019) examined the learning gains of students with different cognitive styles in a flipped class and reported that field-independent students had better academic achievement in comparison to field-dependent and field-neutral students, particularly in quizzes and the final grades. Goedhart et al. (2019) investigated the experience of FI among students with different learning styles and motivation and reported that the flipped class can address the needs of students with diverse learning needs as it allows students to customise or self-regulate the learning process to their personal needs and learning styles. Alten et al. (2020) replicated the effects of SRL support in a flipped class on learning outcomes and course satisfaction and suggested that students’ benefit from a flipped course may depend on their self-regulatory leaning skills and this should be considered in designing the flipped course content.

FI and foreign language learning

Studies on foreign language learning and FI generally focus on two main themes including attitudes towards the flipped approach and the benefit of language learners from the flipped class in teaching language micro and macro skills. The attitudes of language learners towards FI have been assessed in grammar (e.g., Al-Harbi & Alshumaimeri, 2016; Kheirabadi, 2017), conversation (e.g., Warden, 2016) and pronunciation (e.g., Bakla, 2018) courses. Also, the attitudes of English Language Teaching (ELT) professors and students have been examined towards integrating the flipped approach into undergraduate courses (e.g., Vaezi et al., 2019). The impact of FI on learning outcomes has also been assessed in teaching vocabulary (Zhang et al., 2016), listening and speaking (Amiryousefi, 2019), and communication skills (Haghighi et al., 2019; Zarrinabadi & Ebrahimi, 2019).

Most studies in this framework have focused on oral skills and written skills have been examined in a very few studies (e.g. Brown, 2018; Buitrago & Díaz, 2018). More particularly, General English and English for Specific Purposes (ESP) courses in higher education have not been focused on in FI literature. Both instructors and learners face lots of challenges in these courses including too much materials to be covered especially long lists of new words and grammatical structures and long passages, lack of enough time, large classes, and students with multiple proficiency and diverse needs (Phuong, 2002). Based on the theoretical underpinnings of FI, it can be deduced that those activities that take time and require lower-order cognitive processing can be transferred to the out-of-class phase and thus the class time can be spent on higher-order cognitive activities through deepening understanding and promoting learning efficiency that can give better time management to language instructors (Bergmann & Sams, 2012; Lage et al., 2000).



One hundred freshmen enrolled in GE courses in a private university in Tehran in Fall 2018–2019 participated in the study. GE is one of the compulsory courses freshmen should take in their first semester based on the syllabus of BS majors. The freshmen are qualified to enrol in GE course if they have answered at least 30% of the questions of English exam correctly in National University Exams (known as Konkoor).

Eight classes of GE were available, out of which 4 classes were randomly selected and assigned into three experimental and one control group to fulfil the conditions of the current study. The sample included both male (n = 42, 42%) and female (n = 58, 58%) students that ranged in age between 18 and 28 years old. All students were Iranian by nationality and English was a foreign language for them. They had already studied English in compulsory education for 6 years before entering the university.

The groups, the number of their participants and the conditions of the instruction they received are depicted in Table 1.

Table 1 The participants of the study and their class condition


B1  Preliminary

The goal of teaching GE is improving students’ reading proficiency to prepare them to read academic English texts extensively. To assess the participants’ reading proficiency prior and after the study, reading paper of B1 Preliminary was used. B1 Preliminary is a test among Cambridge English Qualifications, a group of examinations developed by Cambridge ESOL at Cambridge University. There are seven tests from pre A1 to C2 clustered in three proficiency levels (basic, independent, proficient) based on Common European Framework of Reference (CEFR). B1 Preliminary is the first test of level ‘independent’ and assesses candidates’ proficiency of basics of English and practical language skills for everyday use.

B1 Preliminary is made up of four papers including reading, writing, listening, and speaking. For the purpose of this study, the reading paper was used. This paper has 6 parts and 32 questions. Typical reading abilities of B1 level based on the Association of Language Testers in Europe’s (ALTE) Can Do statements are summarized in Table 2 (Cambridge English Qualifications, 2020).

Table 2 Can do lists of B1 level reflected in B1 Preliminary reading paper (Cambridge English Qualifications, 2020, p. 6)

The reliability of B1 Preliminary was estimated by KR-21 and found to be 0.70 and 0.86 for pre-test and post-test respectively.


To assess the participants’ level of impulsivity, Barratt impulsive scale (BIS-11) was used. BIS-11 is a widely used measure of impulsiveness and consists of 30 self-report items. The scale has six first-order factors including: attention (5 items), motor (7 items), self-control (6 items), cognitive complexity (5 items), perseverance (4 items), and cognitive instability (3 items).

The scale is anchored on a four-point Likert scale: 1 = rarely/ never, 2 = occasionally, 3 = often, and 4 = almost always/always. Based on Knyazev and Slobodskaya’s (2006) scoring scheme, the total score of 72 or above is considered as very highly impulsive, the scores between 52 and 71 as the normal limits of impulsiveness, and below 52 over-controlled.

The reliability of the questionnaire has been reported to be from 0.79 (Patton et al., 1995) to 0.83 (Stanford et al., 2009) in the literature. The scale has been translated and validated in Persian and its reliability has been reported to be from 0.60 to 0.83. BIS-11 is viewed as a more valid and practical scale to measure the degree of impulsivity-reflectivity of Iranians in comparison to other scales (Arianakia & Hassani, 2014; Ekhtiari et al., 2008).

Open-ended questionnaire

In order to assess the participants’ attitudes towards FI, all members of the experimental groups 1 and 2 were asked to answer an open-ended questionnaire. 37 students (21 participants from the mid-tech FI and 16 participants from the low-tech FI) filled in the questionnaire. The questionnaire had 9 questions regarding the instruction they received in terms of four themes:

  • Students’ perceptions of FI (2 questions)

  • Teacher role in FI (2 questions)

  • Challenges and opportunities of FI (3 questions)

  • Learning outcome of FI (2 questions)

The main themes of the open-ended questionnaire were developed based on merits and demerits of FI reported in the literature (e.g., Akçayıra & Akçayırb, 2018). Twelve questions were written by the researchers by reviewing the published works. The questions were reviewed by two researchers who had worked on FI previously. Some modifications were done in the wording and number of items based on their suggestions and thus 9 questions were finally used to gather the qualitative data.

Teaching materials

The textbook

All four groups studied the same textbook for their GE course, Revive your General English (Kasikhan, 2016). The book has thirteen lessons and each lesson has three main parts including reading passages, grammatical structures, and new words.

Instructional materials for the flipped classes

Audio and video recordings of the teachings were prepared by the instructor for the flipped classes. Fifteen video/audio recordings with an average length of 10 min were prepared. These recordings were the essential instructional content for the low-tech flipped class.

For the mid-tech flipped class, additional materials were prepared and integrated into an educational website designed for this study. To make the materials for flipped classes, Brown’s (2018) guideline was considered. The comparison between the teaching materials of the two flipped classes is shown in Table 3.

Table 3 Instructional materials for the flipped classes (based on Brown, 2018)

The website

A freestanding educational website was designed to deliver created and curated instructional materials for the experimental group 1 (the mid-tech flipped class) and to function as the blend of the in-class teaching for the experimental group 3 (the blended course). It was hosted by for 6 months free of charge and was both desktop- and mobile-based. The website had the following sections: created podcasts/vodcasts, reading materials (both intensive and extensive readings), useful links to extra resources (online dictionaries, multimedia, etc.), slideshows, list of new words and their meanings, explanations of grammatical structures, extra exercises, quizzes, and task sheets.


The study took place in Fall semester of the academic year 2018–2019 for 16 weeks. The students attended the classes once a week and each session lasted for 150 min (two 75-min sessions with a 10-min interval break). All participants took part in the pre-test and their entry level of reading proficiency was checked prior to the study. The students of the experimental groups were then introduced to FI, how it was going to be implemented by the instructor, what they were expected to do, and the technologies they needed for the course. The procedure of teaching in each group is explained below:

Mid-tech flipped class: The instruction was based on the flipped approach consisting of two phases: pre-class and in-class. The pre-class teaching content included both curated and created teaching materials delivered via the designed website. A summary of the class procedure for one session is summarized in Table 4.

Table 4 A sample lesson plan for mid-tech FI

Low-tech flipped class: The low-tech flipped class also received instruction based on the flipped approach while the pre-class activities included just the created vodcasts and podcasts. The students were asked to watch the vodcasts or listen to the podcasts and do as the teacher instructed them in the pre-class phase.

It should be noted that the class procedures for both mid-tech and low-tech FIs were the same. The main difference between the two instructions lies in the way the pre-class materials were prepared and delivered to students (audio/video files vs. a freestanding website).

The blended course: The blended class was based on a supplemental blended model, where the online content was used to enrich the face-to-face classroom teaching. No reduction in classroom meeting time was done while the students were expected to do certain types of activities by referring to the website to extend the learning out of the class. This group used the same website designed for the mid-tech flipped course.

Conventional teaching: The instruction was delivered through chalk-and-talk teaching techniques in this group. No specific technology was used to teach the content.

At the end of the course, all four groups participated in the post-test.

Data analysis


Before the study, the entry-level reading proficiency of the participants was examined by reading paper of B1 Preliminary. A one-way analysis of variance (ANOVA) was used to check the homogeneity of the groups’ reading proficiency prior to the study (Table 5).

Table 5 The result of ANOVA on B1 Preliminary pre-test scores

As Table 5 shows, the result of ANOVA indicates that there was no significant difference between the four groups’ reading proficiency prior to the study (F = 1.340, p = 0.266 < 0.05).

Table 6 Tests of between-subjects effects

Quantitative data analysis

In order to examine the participants’ development of reading proficiency after the study, a two-way analysis of variance (ANOVA) was conducted. In this analysis, B1 Preliminary served as the dependent variable and type of instruction (4 levels: mid-tech FI, low-tech FI, blended course, and conventional teaching) and impulsivity (3 levels: high, normal, low) were the independent variables. The results for the first main effect (type of intervention) suggested that there was a statistically significant difference among post-test scores of the four groups (F = 6.595; p = 0.000 < 0.05; partial eta squared = 0.184) (Table 6).

The Tukey post-hoc test (Table 7) and descriptive statistics (Table 8) showed that the mid-tech flipped class had the best performance among the four groups (Mean = 27.92, SD = 3.46) and was the superior method to teach reading comprehension in the GE courses.

Table 7 Multiple comparisons (Tukey HSD)
Table 8 Descriptive statistics of B1 Preliminary across four groups

Investigating the second main effect showed that there was no statistically significant difference between the performance of students with different levels of impulsivity (F = 095; p = 0.909 > 0.05; partial eta squared = 0.002) in these four courses. In spite of this, the profile plot (Fig. 2) was used to visually inspect the relationship among the variables and examine the performance of students with different levels of impulsivity in B1 Preliminary post-test across the groups.

Fig. 2
figure 2

Plots of B1 Preliminary scores of four groups by level of impulsivity

As Fig. 2 shows, students of the mid-tech flipped class with different levels of impulsivity performed roughly at the same level in B1 Preliminary post-test, meaning that mid-tech FI can prepare the ground for developing the reading proficiency of all three groups from over-controlled, to normal and highly impulsive. The condition is a little bit different while low-tech FI is considered. As it is shown in Fig. 2, over-controlled students had a better performance in low-tech flipped class (Mean = 24.714, SD = 9.56), followed by normal (Mean = 23.666, SD = 8.164) and high impulsive (Mean = 20.25, SD = 7.569) students; while this is reversed in the blended course, where high impulsive participants (Mean = 26.0, SD = 2.28) had better performance in B1 Preliminary in comparison to low (Mean = 20.50, SD = 8.384) and normal impulsive (Mean = 22.923, SD = 6.46) participants.

Finally, it was observed that the 2-way interaction between type of intervention and the participants’ level of impulsivity was not statistically significant (F = 0.995; p = 0.434 > 0.05; partial eta squared = 0.064).

Qualitative data analysis

In order to examine the participants’ attitudes towards FI, qualitative analysis of the answers of mid-tech and low-tech flipped classes to the open-ended questionnaire was done. NVivo 12 Pro was used to reduce the qualitative data and come up with categories that address different dimensions of the participants’ attitudes. A hierarchy of codes, sub-themes, and themes were established based on the relationships between codes, frequencies of codes, and the underlying meanings across codes (Saldana, 2015) using the software output (Table 9). Following that, the qualitative data were interpreted and conclusions were drawn.

Table 9 Themes and subthemes

Challenges and opportunities: Students held both negative and positive attitudes towards FI and gave some suggestions for improving the course based on their experience. The negative points mostly mentioned by the students were related to (a) the use of English as the medium of instruction, (b) the load of teaching materials, and (c) technological aspects of the course (Table 10).

Table 10 Challenges and opportunities of FI

When the students’ attitudes in mid-tech and low-tech flipped classes were compared, some differences could be traced in subtheme ‘workload’ and ‘technological issues’. The mid-tech group members believed that the volume of work was too much, but the low-tech group members thought of the cognitive load of the materials as the disadvantages of the flipped class (e.g., ambiguity, difficulty). Further, in examining their views towards the technological issues, it can be seen that the mid-tech group was concerned about the speed of the Internet, while the low-tech group members were concerned about the quality of the files.

The majority of students believed that the flipped class was a very good strategy for teaching GE. The positive attitudes they had were mostly related to (a) the benefits of being able to study English whenever and wherever, (b) having a private English teacher, and (c) the way this approach helped them learn English better and gain higher scores.

Learning outcomes: The students generally believed that the flipped class can have a significant impact on their learning if they study hard. They mentioned some points about the role of the instructional materials of the FI in their learning and how they had to use them to promote their learning differently from their previous style of studying. They particularly addressed two aspects in this theme: (a) the importance of the content, and (b) the importance of concentration while using the materials (Table 11).

Table 11 Learning outcomes of FI

Looking into the answers of the students in two FI conditions shows that the mid-tech group attributed their learning to the role of the content in activating their schemata as well as the role of the package of the instructional materials the teacher had prepared for them. Low-tech group members, however, overemphasized the value of the audios and videos to be repeatedly listened to and watched for learning and reviewing the content. Both groups believed that they had to be very attentive to out-of-class and in-class materials to be able to learn better.

Students’ feelings: Most students had positive impressions of this approach and felt that they were teaching themselves. They used positive adjectives (such as excellent, good, happy, satisfied, interesting) to either describe their own feelings or the flipped class. However, a few of low-tech group members had negative feelings towards the course, as they had not experienced such a course before. Interestingly, the mid-tech group members had just positive feelings about the instruction (Table 12).

Table 12 Students’ feelings towards FI

Teacher role: The students generally expected the instructor to (a) improve the instructional content and activities, and (b) apply different types of teaching techniques to encourage them to work on in-class and out-of-class activities (Table 13).

Table 13 Teacher role in FI

Both groups expected to have more oral activities in the class. While a few mid-tech group members asked for the improvement of the design interface of the website, low-tech group members asked for using other technologies to produce the content. They also believed that the teacher should improve her teaching style and behaviour while doing in-class activities.


Quantitative data analysis

Effects of mid-tech FI on reading proficiency

The results of the quantitative data analysis showed that the mid-tech flipped group outperformed the other three groups (low-tech FI, the blended course, and the conventional teaching) in the post-test; and mid-tech FI was found to be an advantageous teaching strategy for improving reading skills and comprehension in a GE course.

This finding first and foremost indicates that the mid-tech FI could address the problems of students and instructors in GE classes such as workload, time management, and student–teacher interactions. Content preparation and delivery with the help of technology based on mid-tech FI gave students the opportunity to benefit from richer instructional materials in the pre-class phase and also assisted their learning by enhancing their interaction with the content, students, and the teacher during the class phase. This has certain benefits for the instructors as well, as they have more time during the class time to focus on students’ learning problems and answer their questions. The finding highlights the fact that while both mid- and low- tech FIs merit the advantages of flipping or reversing the instruction, it is the mid-tech FI that can address the needs of both teachers and students more appropriately in GE classes.

The mid-tech FI exploited different types of technologies for content preparation and delivery. Utilizing multimedia, hypertext, hyperlink, and extensive reading materials intermingled FI and computer-based instruction, adding more value to a conventional flipped course and supplying a computer-assisted instruction with a sound instructional approach. This surely helped language learners benefit from the advantages of both approaches that include higher learning achievement, self-directed learning, and meeting individual preferences. In this way the efficiency of FI was improved and its negative effects decreased as one of the disadvantages of conventional flipped classes mentioned in the literature is that just giving the audio or video lectures to students does not necessarily make the course attractive for students and lack of extra materials is one source of demotivation among students who took part in flipped courses (Akçayıra & Akçayırb, 2018).

It should also be noted that mid-tech FI speaks the language of today’s students and lets them learn by the language of technology they know well (Bergmann & Sams, 2012). Ample studies within Computer-Assisted Language Learning (CALL) arena show that applying different technologies into instruction has a myriad of advantages for the instruction. In this context, language learners are found to attend more to reading tasks (Lan et al., 2007); collaboration among them is encouraged and facilitated (Kessler & Bikowski, 2010); and more student-made activities are created (Yoon, 2008). In this way the participants’ interest in and attitudes towards language learning enhanced in comparison to traditional courses (Hsieh et al., 2017) and they became more engaged in the process of learning (Khanova et al., 2015).

Further, mid-tech FI helped students attend the class well-prepared and thus the time of the class was spent on higher order cognitive activities rather than just focusing a lot on language forms. The flipped approach reverses the Bloom’s taxonomy of cognitive activities while the lower order cognitive activities including understanding and remembering are carried out before the class and learners have a lot of time for learning deeply before entering the class (Khadri Ahmed, 2016). Afterwards, the cognitive activities of upper levels including applying, analysing, evaluating and creating are carried out by the presence and support of the instructor and other students in the class time. This contributed to more positive attitudes towards the instruction and more in-depth learning was gained (Kheirabadi, 2017).

Also, the mid-tech flipped group benefited from multimodal input that contributed substantially to the reduction of the load of information processing. Based on cognitive load theory, when the load of the learning task is more than the capacity of the learner’s working memory, the learner feels cognitively overloaded and exhausted and may ultimately lose his/her interest in pursuing learning (Sweller et al., 2011). It is well known that this type of cognitive load, i.e., extraneous load, can be managed by the way the teaching materials are designed and delivered particularly in teaching a difficult subject matter. As multimodal instructional materials were prepared and given to mid-tech flipped group before the class phase, the students could manage the load of the learning tasks and thus the capacity of their working memory increased. This may have led to the reduction of task load and thus the ground was fully prepared for active learning in the in-class phase.

The finding is in agreement with a few studies done on technology-enhanced FI suggesting that by applying emerging technologies such as social networks, mobile-assisted learning systems, and student response systems in flipped classes, an increase in language learning outcomes is guaranteed (Hsieh et al., 2016; Hung, 2017). It is also found that when interactive learning and online support are deployed together in a flipped classroom, better achievement is gained (Strayer, 2012). The finding of the current study is also supported by previous research indicating that FI is a suitable instructional approach to be used in a higher education context (Al-Harbi & Alshumaimeri, 2016; Hsieh et al., 2017) as it has positive effects on some teaching factors including self-regulated strategies (Ng, 2018), attitudes (Vaezi et al., 2019), and learning self-efficiency (Thai et al., 2017). More specifically, the finding corroborates what is suggested by language instructors that FI is an appropriate approach to be used in teaching English in undergraduate courses (Vaezi et al., 2019).

The findings also support those few studies that took the very first steps of comparing different flipped class conditions and reported that the way the instructional content is prepared by different technologies (Shyr & Chen, 2018) and how it is incorporated into the cycle of teaching (Hung, 2015, 2017; Jensen et al., 2018) can make a difference in the effects of FI on learning outcomes.

Effects of mid-tech FI on reading proficiency considering the levels of impulsivity

Examining the levels of impulsivity of the participants revealed that the type of instruction did not have any significant effect on the improvement of reading proficiency of students with different levels of impulsivity. However, probing into the descriptive statistics showed that students of the mid-tech FI with different levels of impulsivity performed almost equally in the post-test and outperformed their counterparts in other classes.

This shows that mid-tech FI could address the needs of all three groups and is a much better instruction for learners with diverse cognitive styles. The reason for this can be related to the underlying framework of a flipped class and computer-assisted instruction (CAI) as both have been established and strengthened based on the main premise of personalized instruction and addressing individual differences (e.g., Bergmann & Sams, 2012; Rahimi, 2015). This shows that while impulsivity/reflectivity divides “individuals into impulsive, who reach decisions quickly and spontaneously, which in turn entails a number of incorrect responses, and reflective who, in contrast, make fewer mistakes as a result of taking more time before providing the response” (Michonska-Stadnik, 2013, p. 139), appropriate personalized instruction such as mid-tech FI can fulfil the learning condition of either groups of the learners and help them learn to their maximum potential. This is actually in line with those studies that set forth that impulsiveness and using technology, especially using computers for work and spending more time on the Internet, are associated (Everton et al., 2005). High impulsiveness is even reported to be associated with pathological use of technology and particularly the Internet use hours (Morahan-Martin & Schumacher, 2000). As impulsive people show greater variability of performance and faster cognitive tempo (Stanford et al., 2009), they might have benefited more from the mid-tech FI that gave them free access to using the website and a variety of online resources before the class and thus they could manage their learning based on their own preferences.

At the same time mid-tech FI was also found to be useful for participants who were more controlled and reflective. The mid-tech FI gave these students the opportunity to spend quality time to elaborate on the learning content and think about how to do the activities before the class to prepare themselves for the in-class phase via a lot of online instructional materials. It is known that reflective personalities have active minds and enjoy spending quality time on thinking and deep understanding of the issues. They spend a lot of time to make sense of events and experiences. They focus on the content and as a result, the pre-class phase of the flipped classroom gave these learners chances of concentration on the new lesson and they had time to deeply understand the materials and were prepared for the class time as reflectivity is “associated with active, directed and controlled search for the information” (Matczak, 1992, p. 37, as cited in Michonska-Stadnik, 2013, p. 139). Further, as these learners enjoy listening to others, the collaborative activities of the in-class phase helped them learn better and remember the learned materials for a longer period of time.

Although no study has been done on the effect of FI on learning gains of language learners with different levels of impulsivity in English for general or academic purposes, it can be said that the finding generally corroborates research on the effectiveness of FI on language learning while diversity of learners and their preferences are taken into account (e.g. Bakla, 2018; Hsieh et al., 2017), supporting the fact that FI is the right instructional approach for language teaching from both theoretical and pedagogical standpoints (Mehring, 2018).

Qualitative data analysis

The findings of the qualitative data analysis showed that the participants had generally positive attitudes towards FI. The positive attitudes were found to be the result of ‘on-the-go learning’ feature of the course and its capability in promoting learning outcomes in a GE course. The advantages of mobile learning are evident in the literature as mobile learning can provide easy access to instruction anytime and anywhere (Kukulska-Hulme, & Shield, 2008). Providing a variety of content and easiness of carrying them everywhere gave students this opportunity to learn English more easily and with less pressure. Another positive aspect of FI that the participants highlighted was having a private tutor at home to help them tackle their problems with learning. Personalized instruction, as the main goal of FI, can create positive attitudes towards learning and lead to supportive learning environments (Vaezi et al., 2019). In this student-centred classroom, an active learning environment is fostered and students are challenged and assisted to do their best as learning tasks are customized to align with each student’s interests, needs, and strengths.

In spite of these positive attitudes, some reservations existed with regard to using this approach in GE classes. English as the medium of instruction and the high load of learning materials were among the most focal points the students mentioned. One main reason of such negative attitudes is the unfamiliarity of students with the flipped approach. The sustained use of FI in GE courses would solve these difficulties as the needs of diverse groups of leaners would be addressed appropriately and as the result of this study showed their mastery of the content would increase ultimately.

Students’ perceptions of their learning in flipped classes showed that having instructional content at hand has increased their attention to and concentration on the content. In addition, this type of instruction has brought joy and pleasure to their learning. Literature shows that applying images along with words decreases the overwhelming nature of reading and processing texts and can help learners cope with the task difficulty and load. A sensory and authentic learning experience can be provided by multimedia that presents a greater possibility for deeper learning (Lindfors, 1987; Mayer, 2003). Moreover, the students expected the teacher to spend more time on preparing high quality instructional materials. Considering the limited budget, the instructors have for materials development, this demands collaboration from the instructional departments of the universities to support flipped classes. Otherwise, the high load of materials development would discourage applying this innovative instructional approach in university courses.


In the last two decades, FI has been practiced and researched in many different educational contexts highlighting its tremendous potential for the stakeholders of the education system. Although substantial evidence supports the fact that FI can improve learning outcomes, satisfaction, motivation, critical thinking skills, retention, and creativity (Akçayıra & Akçayırb, 2018), certain grave concerns related to the role of technology in preparing the content and the benefits of diverse groups of learners from FI are not yet fully addressed.

To fill this gap, the current study first set a continuum to differentiate technologies utilized for FI content preparation and delivery by a critical review of the literature. Then, based on the deduced model, two FI conditions, namely low-tech and mid-tech FI, were compared with a blended course and a conventional class to probe into participants’ learning gains in general and when their degree of impulsivity was considered.

The findings were consistent with a few other studies and revealed that FI is not an inflexible instructional approach; and using different techniques and technologies for content preparation and delivery in FI may result in better learning achievement (Jensen et al., 2018). This may draw the attention of educationists to the importance of the quality of flipped course materials and that FI should be planned carefully to promote higher learning and more satisfaction with the course. There is, however, a need for more flipped classroom research to explore the advantages other technologies may offer for this innovative approach, particularly Intelligent Tutoring Systems that promote patterns of computer–human interaction intelligently by taking into account the dynamics of peoples’ characteristics and behaviour.

Notably, the findings yielded illuminating insights into the role of technology in materials development in FI and how this complex issue can affect the learning gains of participants with diverse cognitive styles. In spite of the fact that impulsive and reflective learners are essentially different in their problem solving and task completion tempo, the FI with more integrated and interrelated instructional contents was found to be beneficial for both groups. A few studies have accentuated the fact that FI assists individualized learning (González-Gómez et al., 2016); and by what was found here it could be said that technology-enhanced FI could support individual learning even more. However, the scarcity of empirical evidence on this topic calls for further research to shed more light on the assumption that incorporating more complex technologies into FI would lead to more personalised learning among participants with diverse learning needs and preferences.

The result of qualitative data analysis provided great details about the way the students of two FI conditions perceived their learning experience. Minute differences were observed between the two groups’ perceptions of the challenges and opportunities of FI, their learning in this context, and their feeling toward FI that could be overshadowed by participants’ general satisfaction and technology acceptance attitudes. What was revealed through qualitative data analysis is generally in agreement with literature that FI promotes students’ satisfaction (Hung, 2017), engagement (Fethi & Marshall, 2018), and enjoyment (Wanner & Palmer, 2015). What the finding of this study actually adds to the literature is that the level of all these variables could be dependent on the technologies that are used to prepare and deliver the content in FI, and how their affordances may promote attention and concentration, help learners manage their cognitive load, and ease the instruction through mobile learning. Additional research is absolutely needed to examine this assumption and explore the possibility of establishing causative relations between technology type and potential advantages of FI in education. In this framework, one line of study could focus on the suggested continuum of technology complexity for preparing the out-of-class content of FI, as this continuum is deduced based on reviewing the literature by the researchers of the current study, and its generalizability is open to further research.

Availability of data and materials

Since mixed methods approach was used in this study, most parts of the data are shared with the readers in the manuscript.



Analysis of variance


Association of Language Testers in Europe


Barratt impulsive scale (version 11)


Bachelor of Science


Computer-assisted instruction


Computer-assisted language learning


Common European Framework of Reference


English as a second language


English for specific purposes


Flipped instruction


General English


Intelligent tutoring systems


Learning management system


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No specific funding has been received in collection, analysis, and interpretation of the data and in writing the manuscript.

Author information

Authors and Affiliations



SZ carried out the study and gathered the data. MR conceptualized, designed and supervised the research; and drafted, wrote, reviewed and edited the manuscript. AM gave advice on how to carry out the study. All authors read and approved the final manuscript.

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Correspondence to Mehrak Rahimi.

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Zarrinfard, S., Rahimi, M. & Mohseny, A. Flipping an on-campus general English course: a focus on technology complexity of instruction and learners’ levels of impulsivity. Int J Educ Technol High Educ 18, 45 (2021).

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