Research Article

Generative Artificial Intelligence, Motivation, Anxiety, and Creativity in Saudi English-as-a-Foreign-Language Classrooms: A Cross-Sectional Survey

DOI:

10.3791/72626

August 14th, 2026

In This Article

Summary

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This cross-sectional survey examined associations among generative artificial intelligence use, teaching style, digital literacy, motivation, anxiety, and creativity in Saudi English-as-a-Foreign-Language undergraduates, identifying motivation as an important mediator of the observed relationships.

Abstract

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Artificial intelligence (AI) tools such as ChatGPT are increasingly being incorporated into English as a Foreign Language (EFL) education; however, limited evidence is available regarding how their use relates to teaching style, digital literacy, motivation, foreign language classroom anxiety (FLCA), and creativity within the Saudi Arabian context. This study investigated the associations among these constructs and examined the mediating role of motivation within a unified conceptual framework. A quantitative, cross-sectional survey was conducted among 280 undergraduate EFL students enrolled at a public-sector university in Saudi Arabia using validated questionnaire instruments. The proposed relationships were analyzed using Partial Least Squares Structural Equation Modeling (PLS-SEM). The results indicated that ChatGPT use, teaching style, and digital literacy were positively associated with students’ motivation. Higher motivation was associated with lower levels of FLCA and higher levels of creativity. Motivation also mediated the associations between ChatGPT use, teaching style, digital literacy, and FLCA. These findings suggest that students’ motivational experiences are closely associated with the relationships between instructional practices, technology use, and language-learning outcomes. The study provides evidence supporting the integration of appropriate teaching strategies, generative AI tools, and digital literacy within English language education while highlighting the importance of considering students’ motivational and emotional experiences when implementing technology-supported learning environments.

Introduction

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The Kingdom of Saudi Arabia is undergoing a transformative educational reform agenda under Vision 2030, which prioritizes the development of 21st-century skills, digital competence, and innovative pedagogical approaches across all educational levels1. Within this national context, English as a Foreign Language (EFL) education continues to face persistent challenges, including an examination-driven culture that emphasizes rote learning and test performance over communicative competence2,3. Limited opportunities for authentic English language interaction outside the classroom, together with high levels of foreign language classroom anxiety (FLCA), further restrict students’ willingness to communicate and engage meaningfully with the target language4. These challenges have prompted educators and policymakers to explore innovative approaches that address motivational deficits, emotional barriers, and creative language use. Artificial intelligence (AI) has emerged as a promising avenue for supporting language learning and transforming instructional practices5. Among AI applications in English Language Teaching (ELT), ChatGPT, a conversational generative AI model, has received considerable attention for providing interactive language practice and immediate individualized feedback in real-time conversational contexts6. These features are particularly relevant in Saudi EFL classrooms, where teacher-centered instruction and limited student interaction continue to constrain creative language production7. ChatGPT may help address these limitations by providing opportunities for authentic, low-anxiety language practice with an AI interlocutor8.

Recent educational reforms in Saudi Arabia have encouraged a transition toward learner-centered pedagogy, creating opportunities to integrate AI technologies that promote active participation, critical thinking, and self-directed learning9,10. When implemented appropriately, ChatGPT can support this transition by extending language practice beyond traditional classroom activities11. However, the effectiveness of AI integration depends partly on students’ digital literacy, defined as their ability to evaluate, use, and engage effectively with digital technologies for learning12. Digital literacy enables learners to make productive use of AI tools while minimizing potential risks, including over-reliance and misinformation13. This competency is particularly important in Saudi higher education, where digital transformation has accelerated under Vision 203014.

Although previous research has examined AI tools, teaching style, digital literacy, motivation, anxiety, and creativity separately, limited evidence has investigated how these constructs interact within a unified framework in non-Western EFL contexts such as Saudi Arabia. Motivation has consistently been identified as an important mechanism linking instructional practices with learning outcomes, including lower anxiety, greater creativity, and sustained engagement15. However, the relationships among ChatGPT usage, teaching style, digital literacy, motivation, FLCA, and creativity have not been comprehensively examined in the Saudi EFL context16. Addressing this gap may provide theoretical and practical insights for designing technology-enhanced language learning environments that support students’ motivational, emotional, and creative development. Accordingly, this study investigates the relationships among ChatGPT usage, teaching style, digital literacy, motivation, FLCA, and creativity among Saudi EFL undergraduates. Specifically, it examines (1) the relationships of ChatGPT usage, teaching style, and digital literacy with students’ motivation; (2) the relationships of motivation with FLCA and creativity; and (3) the mediating role of motivation in the relationships between ChatGPT usage, teaching style, digital literacy, and the outcome variables of anxiety and creativity.

This study contributes to EFL education and technology-enhanced learning by incorporating AI tool usage into existing models of motivation and language learning, thereby extending understanding of technology-supported language learning in contemporary educational settings. It also provides evidence that may inform educators, curriculum designers, and policymakers seeking to integrate AI tools into Saudi EFL instruction. By examining motivation as a mediator linking technology use and instructional practices with FLCA and creativity, the study offers context-specific evidence to support the development of learner-centered language education aligned with Saudi Arabia’s educational reform goals.

Self-Determination Theory (SDT) provides a theoretical framework for understanding the relationship between teaching practices and student motivation in educational contexts17. According to SDT, intrinsic motivation and autonomous forms of extrinsic motivation are supported when learners’ three basic psychological needs—autonomy, competence, and relatedness—are satisfied within the learning environment18. Teaching style is therefore a key contextual factor influencing students’ motivation and engagement19. Autonomy-supportive teaching practices that provide meaningful choices, acknowledge students’ perspectives, and explain learning activities promote intrinsic motivation and self-determined engagement20. In EFL contexts, learner-centered approaches, including facilitator and delegator teaching styles, have been associated with greater student commitment, participation, and interest in language learning21,22. Conversely, teacher-centered instruction may reduce motivation by limiting student participation and autonomy while emphasizing extrinsic rewards over intrinsic interest23,24. In the Saudi EFL context, where traditional instruction has historically emphasized memorization and teacher-centered delivery25, adopting more learner-centered teaching approaches may support students’ motivation26. Based on this theoretical and empirical foundation, the following hypothesis is proposed: H1: Teaching style positively influences EFL students’ motivation.

The relationship between educational technology and learner motivation has been widely investigated27,28. The Technology Acceptance Model (TAM) suggests that learners’ motivation to engage with educational technology is influenced by perceived usefulness and perceived ease of use, which shape behavioral intentions and technology use29. Applied to ChatGPT, this framework suggests that students who perceive the tool as useful and easy to use are more likely to engage with it for language learning30. Empirical studies have reported positive associations between AI-supported language learning and student motivation, with interactive features, immediate feedback, and personalized practice contributing to sustained engagement31,32. ChatGPT may also reduce barriers associated with language anxiety by providing opportunities for low-pressure language practice, which may encourage continued language use33. This potential is particularly relevant in the Saudi context, where FLCA has been identified as an important barrier to motivation and language achievement34. Based on these theoretical and empirical findings, the following hypothesis is proposed: H2: The use of ChatGPT positively influences EFL students’ motivation.

Digital literacy has become an important determinant of students’ motivation in contemporary EFL learning environments35. It refers to the ability to search, evaluate, and use digital technologies and media effectively for learning36. In EFL contexts, digital literacy enables learners to make effective use of digital resources, including ChatGPT, learning management systems, and multimedia tools, to support language learning and motivation37. Students with higher levels of digital literacy are more likely to use learning technologies confidently, fostering competence and autonomy, which are associated with intrinsic motivation38. They are also better equipped to use digital tools for independent language practice, feedback, and sustained engagement in learning39. Based on this literature, the following hypothesis is proposed: H3: EFL students’ digital literacy positively influences EFL students’ motivation.

FLCA and creativity are closely related constructs in EFL education, although their relationship remains complex40. Anxiety may limit learners’ performance on tasks requiring creativity, cognitive flexibility, divergent thinking, and self-expression41. FLCA reflects learners’ fear of making mistakes, negative evaluation, and low self-confidence, all of which may interfere with creative language production42. Creativity, however, is an important competency in EFL learning because it supports contextually appropriate and innovative language use31. Previous studies have reported that learners with higher anxiety are less likely to participate in creative writing and oral communication activities43,44. Based on this literature, the following hypotheses are proposed: 1) H4: EFL students’ motivation is negatively related to their anxiety, and 2) H5: EFL students’ anxiety negatively influences their creativity.

Motivation provides a theoretical mechanism through which teaching style, ChatGPT use, and digital literacy may relate to FLCA45. Motivated learners are more likely to participate actively, persist through challenges, and experience lower levels of communication apprehension46. Supportive teaching practices, AI-assisted language learning, and stronger digital literacy have each been associated with higher motivation and lower anxiety in EFL settings47,48,49. Previous research also suggests that greater motivation is associated with lower classroom anxiety and increased creativity, providing support for motivation as a potential mediator linking instructional practices and technology use with learning outcomes50,51,52. Based on this literature, the following hypotheses are proposed: 1) H6: Motivation mediates the relationship between teaching style and EFL students’ anxiety; 2) H7: Motivation mediates the relationship between the use of ChatGPT and EFL students’ anxiety; and 3) H8: Motivation mediates the relationship between EFL students’ digital literacy and their anxiety. Figure 1 illustrates the hypothesized model in which teaching style, ChatGPT use, and digital literacy are associated with EFL students’ motivation, which in turn mediates their relationships with FLCA and creativity.

figure-introduction-1
Figure 1. Hypothesized research model. The model depicts the hypothesized relationships among ChatGPT use, teaching style, digital literacy, motivation, foreign language classroom anxiety, and creativity in English-as-a-foreign-language (EFL) students. Solid lines represent direct hypothesized relationships, and dashed lines represent mediating relationships, as indicated in the figure. Please click here to view a larger version of this figure.

Protocol

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Although the study did not require formal ethical approval from an institutional review board because of its non-experimental, anonymous survey design involving no physical interventions, manipulation, or deception of participants, all procedures were conducted in accordance with the ethical principles of the Declaration of Helsinki and the American Psychological Association’s guidelines for research involving human participants. Informed consent was obtained from all participants prior to data collection. The institution did not require or issue a formal ethics approval or exemption for this type of study. All respondents were explicitly informed of the research purpose, their voluntary participation, their right to withdraw at any time without consequence, and the strict confidentiality measures applied to their data. No personally identifiable information was collected or reported, and all data were used exclusively for aggregated academic analysis. Particular attention was given to non-intrusive, respectful wording to ensure that the survey did not interfere with the participants’ academic activities or psychological well-being. For the informed consent form, see Supplementary File 1. Moreover, the materials used in this study are listed in the Table of Materials.

Research design

This section outlines the research design, data collection procedures, and sample details used in the study to investigate the relationships among teaching style, ChatGPT usage, digital literacy, motivation, anxiety, and creativity among EFL students. This study employed a quantitative, cross-sectional research design to examine the mediating role of motivation in the relationships among teaching style, ChatGPT usage, digital literacy, and anxiety among EFL students, and how these variables collectively relate to creativity. A structured survey methodology was adopted to collect primary data, ensuring standardization and reliability in measuring the constructs. The study utilized validated scales to assess all variables, including teaching style, ChatGPT usage, digital literacy, motivation, FLCA, and creativity.

Data and Sample

Data for this study were collected from EFL students enrolled at the University of Jeddah, a public-sector university in Saudi Arabia recognized for its emphasis on language education and the integration of technology in teaching. The participants were selected using a purposive sampling technique, which was deemed appropriate for this study given the specific inclusion criteria requiring participants to have active experience with AI tools such as ChatGPT in their learning environment. This non-probability sampling approach was necessary because the study’s research questions focused on a specific population EFL students who had been exposed to both traditional and technology-assisted learning methods and random sampling would not have guaranteed the inclusion of participants meeting these criteria. While purposive sampling limits the generalizability of the findings to the broader population, it was justified for this exploratory investigation to ensure that participants possessed the relevant experiences and perspectives necessary to address the research objectives. To mitigate the limitations of purposive sampling, efforts were made to include participants with diverse academic backgrounds and varying levels of technological proficiency, thereby enhancing the representativeness of the sample within the target population. The final sample consisted of 280 undergraduate EFL students, a size deemed adequate for the statistical techniques employed.

The determination of sample size adequacy was based on established guidelines for Structural Equation Modeling (SEM). Researchers recommend a minimum ratio of 10 cases per estimated parameter for SEM, with more conservative guidelines suggesting 20 cases per parameter for Partial Least Squares SEM (PLS-SEM). The measurement model comprised 29 items for digital literacy, 25 items for teaching style, and 32 items for FLCA, alongside additional items for ChatGPT usage, motivation, and creativity. PLS-SEM guidelines also recommend a minimum sample size equal to 10 times the largest number of formative indicators or the largest number of structural paths directed at a particular construct; therefore, the sample of 280 participants exceeded these minimum requirements. Furthermore, a post hoc power analysis using G*Power53 indicated that a sample of 280 participants provided statistical power exceeding 0.95 for detecting medium effect sizes (f2 = 0.15) with α = 0.05, exceeding the commonly recommended threshold of 0.80. This sample size provides reliable parameter estimates and sufficient statistical power to detect meaningful relationships among the study variables while accommodating the complexity of the proposed measurement and structural models.

Participants and Procedure

The participants were EFL students aged between 18 and 25 years, with a majority being first- and second-year undergraduates enrolled in English language courses. The survey was conducted between September and October 2025, during which students were invited to participate voluntarily. The recruitment process involved outreach through official university channels, including emails and announcements in classes. The participants were EFL students aged 18–25 years who were enrolled as first- or second-year undergraduates in English language courses. Eligibility was determined using predefined inclusion and exclusion criteria. Participants were eligible if they were (a) officially enrolled in undergraduate English language courses at the University of Jeddah, (b) aged 18–25 years, and (c) registered as first- or second-year students. Students were excluded if they were (a) graduate students or upper-division undergraduates outside the foundational course sequence, (b) outside the specified age range, or (c) involved in the questionnaire pretesting phase. To ensure informed consent, participants were briefed on the purpose of the study, the voluntary nature of their participation, and the confidentiality of their responses. The data collection instrument was a structured, self-administered questionnaire distributed physically and electronically using a secure online platform. Validated scales were adapted for measuring teaching style, ChatGPT usage, digital literacy, students’ motivation, FLCA, and creativity. Participants were asked to rate their responses on a 5-point Likert scale, ranging from 1 (Strongly Disagree) to 5 (Strongly Agree). Pre-testing of the questionnaire was conducted with a small group of 30 students to ensure clarity and reliability. Based on the pre-testing results, minor wording adjustments were made to enhance item comprehensibility, and no significant issues with scale reliability or validity were identified. To maintain data integrity and encourage honest responses, anonymity was guaranteed, and participants were assured that their data would only be used for research purposes. Out of the initial 300 responses collected, 280 were deemed valid after screening for incomplete or inconsistent data, yielding a retention rate of 93%. Data screening procedures included examining response patterns for straight-lining, excessive missing data (more than 10%), and multivariate outliers using Mahalanobis distance. This methodological approach provides a robust foundation for analyzing the relationships among the study variables and offers valuable insights into the role of teaching style, AI tools, and digital literacy in shaping EFL students’ motivation, anxiety, and creativity.

Following data collection, 20 responses were excluded from the initial pool of 300 based on predefined criteria: 12 responses were removed due to excessive missing data exceeding 10% of questionnaire items, 5 were eliminated for demonstrating straight-lining response patterns (uniform responses across all items indicating non-engagement), and 3 were identified as multivariate outliers using Mahalanobis distance (p < 0.001) and subsequently removed to prevent distortion of the SEM results. Missing values for retained cases were handled using mean imputation where missing data were minimal (less than 5% per case), as this approach is acceptable for small proportions of missingness in large-scale survey research. The final retention rate of 93% (280 valid responses out of 300 collected questionnaires) represents the proportion of usable responses retained from the total collected questionnaires; however, this should not be interpreted as a true response rate, as the exact number of invited participants could not be calculated because the combined physical and electronic distribution methods through official university channels precluded precise tracking of total invitations. This limitation is acknowledged, and the 93% figure is therefore reported as the proportion of valid responses retained from the collected questionnaires rather than as a response rate relative to the total invited population.

Tools and Measures

This study utilized well-established and validated scales, carefully adapted to the context of EFL education, to measure the core constructs: teaching style, digital literacy, ChatGPT usage, FLCA, motivation, and creativity. Each scale was selected based on its relevance and comprehensiveness in capturing the respective dimensions of the variables under investigation. Digital literacy was measured using an adapted scale based on Rodríguez-de-Dios et al.54, comprising six dimensions with 29 items. These dimensions included Technological Skill, Personal Security Skill, Critical Skill, Device Security Skill, Informational Skill, and Communication Skill, allowing for a comprehensive assessment of students’ proficiency in digital skills essential for modern educational contexts. The usage of ChatGPT was evaluated using an 8-item scale adapted from Abbas et al.55, focusing on students’ interaction with the AI tool for language learning tasks. Teaching style was assessed using an adapted version of Grasha’s Teaching Style Inventory56. This instrument measures five dimensions of teaching styles: Authority, Expert, Personal Model, Facilitator, and Delegator. These dimensions reflect various instructional approaches that influence EFL students’ learning experiences. FLCA was measured using an adapted scale based on Briesmaster and Briesmaster57. This instrument examined anxiety across three dimensions: Communication Apprehension (10 items), Test Anxiety (10 items), and Fear of Negative Evaluation (7 items). Students’ motivation was assessed using a scale adapted from Kanoksilapatham et al.58, measuring three dimensions: Instrumentality Promotion and Prevention, Ethnocentrism and Integrativeness, and Attitude Towards Learning English. The scale included a total of 20 items. EFL students’ creativity was measured using a scale adapted from Govindasamy et al.59, which assessed four dimensions: Originality, Flexibility, Fluency, and Elaboration. Each dimension was measured using three items. To ensure the cultural and contextual suitability of the instruments for the EFL setting, a systematic adaptation procedure was applied. Because the original scales were developed in English, two bilingual EFL experts reviewed and simplified the language to improve clarity for intermediate-level undergraduate students while preserving the original meaning of each construct. The adapted versions were then back-translated into the participants’ first language by an independent translator to verify linguistic and conceptual equivalence, and any discrepancies were resolved through discussion among the research team. Subsequently, three experienced EFL instructors evaluated the adapted instruments for content relevance, cultural appropriateness, and item clarity, resulting in minor wording revisions and the replacement of culturally unfamiliar examples where appropriate. Finally, the revised instruments were pilot-tested with 30 students (see Procedure section), and participant feedback was used to make additional minor wording refinements to improve comprehensibility. This multi-step process ensured that the adapted instruments maintained their original psychometric properties while being appropriate for the target EFL population. For the complete adapted questionnaire, see Supplementary File 2.

Data Analysis Methods

The data collected for this study were analyzed using the Statistical Package for the Social Sciences (SPSS 26) and SmartPLS 4, employing PLS-SEM. This dual-method approach ensured a comprehensive analysis of the data, addressing both descriptive and inferential aspects while testing the hypothesized relationships and mediation effects in the research model. Initially, SPSS was used to perform preliminary data analysis, including data cleaning, descriptive statistics, and reliability testing. Data screening involved checking for missing values, outliers, and normality to ensure the quality and integrity of the dataset. Descriptive statistics, including the mean, standard deviation, and frequency distributions, were computed to summarize the sample characteristics. The main analysis was conducted using SmartPLS 4. PLS-SEM was selected because of its suitability for analyzing complex models with multiple constructs and its robustness for small to medium sample sizes. The analysis was conducted in two stages: evaluation of the measurement model and evaluation of the structural model. In the measurement model assessment, indicator reliability, internal consistency reliability (using composite reliability [CR]), convergent validity (using average variance extracted [AVE]), and discriminant validity (using the heterotrait–monotrait ratio [HTMT]) were evaluated.

Following validation of the measurement model, the structural model was assessed to evaluate the hypothesized relationships among teaching style, ChatGPT usage, digital literacy, motivation, anxiety, and creativity. Path coefficients were analyzed to determine the strength and significance of the direct and indirect effects, with significance assessed using bootstrapping with 5,000 resamples. To assess the significance of direct, indirect, and mediation effects, bias-corrected (BC) bootstrap confidence intervals were constructed using 5,000 bootstrap resamples with a 95% confidence level. The mediation effects of motivation on the relationships between teaching style, ChatGPT usage, digital literacy, and anxiety were also evaluated using bootstrapped confidence intervals. Model fit and predictive power were assessed using the coefficient of determination (R2), predictive relevance (Q2), and standardized root mean square residual (SRMR).

Results

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Descriptive Statistics

Descriptive statistics provide an overview of the sample characteristics and the distribution, central tendency, and variability of the study variables. In this study, descriptive analyses were performed to characterize the participant sample and summarize the key variables before conducting the structural analyses.

Table 1 summarizes the demographic characteristics of the 280 undergraduate EFL participants. Female participants comprised 54.3% (n = 152) of the sample, whereas male participants accounted for 45.7% (n = 128). Most participants were 21–23 years of age (52.1%), followed by those aged 18–20 years (36.4%) and 24–25 years (11.4%). Regarding academic year, second-year students represented the largest group (42.1%), followed by first-year (34.3%) and third-year students (23.6%). Most participants reported moderate experience with ChatGPT (47.1%), whereas 36.8% reported extensive experience and 16.1% reported limited experience. All participants had prior exposure to ChatGPT, consistent with the study inclusion criteria, with the “limited experience” category indicating minimal use rather than no prior use. Participants predominantly reported moderate digital literacy (54.6%), followed by high (30.4%) and low (15.0%) digital literacy. Most participants demonstrated intermediate English proficiency (62.5%), whereas 22.9% reported basic proficiency and 14.6% reported advanced proficiency. Overall, the demographic characteristics indicate that the sample included participants with diverse academic backgrounds, levels of digital literacy, English proficiency, and experience with ChatGPT (Table 1, Figure 2).

VariableCategoryFrequency, nPercentage, %
GenderMale12845.7
Female15254.3
Age group18–20 years10236.4
21–23 years14652.1
24–25 years3211.4
Year of studyFirst year9634.3
Second year11842.1
Third year6623.6
Experience with ChatGPTLimited experience4516.1
Moderate experience13247.1
Extensive experience10336.8
Digital literacy levelLow4215
Moderate15354.6
High8530.4
English proficiency levelBasic6422.9
Intermediate17562.5
Advanced4114.6

Table 1: Demographic characteristics of the study respondents. The table summarizes the demographic characteristics of the 280 English-as-a-foreign-language (EFL) students included in the study. Frequencies and percentages are reported for gender, age group, year of study, experience with ChatGPT, digital literacy level, and English proficiency level.

figure-results-1
Figure 2. Demographic characteristics of the study respondents. Please click here to view a larger version of this figure.

Figure 2 presents the demographic distribution of the study participants according to gender, age group, year of study, experience with AI tools, digital literacy level, and English proficiency level. The distribution shows a slightly higher proportion of female than male participants, with most respondents aged 21–23 years. Moderate digital literacy and intermediate English proficiency were the most frequently reported categories (Figure 2).

Table 2 presents the descriptive statistics for the study variables. Teaching style, measured using 25 items, had a mean score of 3.84 (SD = 0.76), with scores ranging from 2.1 to 4.8. ChatGPT usage, assessed using eight items, had a mean score of 3.67 (SD = 0.81), with responses ranging from 1.5 to 5.0. Digital literacy, measured using 29 items, had a mean score of 3.72 (SD = 0.73), with scores ranging from 2.2 to 4.9. Motivation, assessed using 20 items, had the highest mean score (3.92, SD = 0.68), with values ranging from 2.4 to 5.0. Anxiety, measured using 27 items, had a mean score of 3.41 (SD = 0.89). Creativity, assessed using 12 items, had a mean score of 3.78 (SD = 0.74), with scores ranging from 2.0 to 5.0. These descriptive statistics indicate variability across the measured constructs while providing an overall summary of participant responses.

VariableNumber of ItemsMean (M)Standard Deviation (SD)MinimumMaximum
Anxiety273.410.891.85
ChatGPT Usage83.670.811.55
Creativity123.780.7425
Digital Literacy293.720.732.24.9
Motivation203.920.682.45
Teaching Style253.840.762.14.8

Table 2: Descriptive statistics for the study constructs. The table reports the number of questionnaire items, mean (M), standard deviation (SD), minimum observed value, and maximum observed value for teaching style, ChatGPT usage, digital literacy, motivation, foreign language classroom anxiety, and creativity based on responses from 280 participants.

Common Method Variance Bias

Common method variance (CMV) bias refers to spurious covariance among variables attributable to the measurement method rather than the constructs being measured. Because this study used a self-reported survey, both procedural and statistical approaches were employed to assess the potential influence of CMV bias. Procedurally, participants were assured of anonymity and confidentiality to minimize social desirability bias and encourage honest responses. In addition, questionnaire items adapted from established instruments were presented in a randomized order to reduce response patterns that could artificially inflate CMV bias. Statistically, Harman’s single-factor test was conducted by entering all measured variables into an exploratory factor analysis (EFA) without rotation. The analysis showed that the first unrotated factor explained 32.7% of the total variance, which is below the recommended threshold of 50%, indicating that CMV bias was unlikely to substantially influence the study findings (Table 3).

StatisticValueThresholdInterpretation
Total number of factors extracted7N/AMultiple factors were extracted, indicating that the measured items represent distinct constructs.
Variance explained by the first factor32.70%<50%Below the commonly accepted threshold, indicating that common method variance (CMV) is unlikely to be a serious concern.
Cumulative variance explained (first three factors)62.10%N/AIndicates that the first three factors account for a substantial proportion of the total variance.
Kaiser–Meyer–Olkin (KMO) measure of sampling adequacy0.89>0.80Indicates excellent sampling adequacy for factor analysis.
Bartlett's test of sphericity (p value)<0.001p < 0.05Significant result indicating that the correlation matrix is suitable for factor analysis.

Table 3: Harman’s single-factor test and sampling adequacy results. The table summarizes the results of Harman’s single-factor test, the Kaiser–Meyer–Olkin (KMO) measure of sampling adequacy, and Bartlett’s test of sphericity. Harman’s single-factor test was performed to assess the potential influence of common method variance (CMV). The KMO statistic and Bartlett’s test were used to evaluate the suitability of the dataset for factor analysis.

Table 3 presents the results of Harman’s single-factor test, indicating that the first unrotated factor accounted for 32.7% of the total variance, which is below the recommended 50% threshold and suggests that common method bias is not a substantial concern in this study. The Kaiser–Meyer–Olkin (KMO) measure of sampling adequacy was 0.89, indicating that the data were suitable for factor analysis. In addition, Bartlett’s test of sphericity was statistically significant (p < 0.001), confirming that the correlation matrix was appropriate for factor analysis. Collectively, these findings support the suitability of the dataset for subsequent structural equation modeling analyses.

Measurement Model

The measurement model was evaluated to assess the reliability and validity of the study constructs using PLS-SEM implemented in SmartPLS 4, following the recommendations of Hair et al.60 Indicator reliability, internal consistency reliability, convergent validity, and discriminant validity were assessed. Indicator reliability was evaluated using outer loadings, with items exhibiting loadings greater than 0.70 retained as reliable indicators of their respective constructs. Items with loadings between 0.60 and 0.70 were retained only when their removal did not improve the internal consistency of the corresponding construct. Internal consistency reliability was assessed using Cronbach’s alpha and CR. Convergent validity was evaluated using the AVE, with all constructs demonstrating AVE values greater than 0.50, indicating that each construct explained more than half of the variance in its indicators. Discriminant validity was assessed using the HTMT ratio, and all HTMT values were below the recommended threshold of 0.85, supporting the empirical distinctiveness of the study constructs (Tables 4 and 5).

ConstructFactor LoadingComposite Reliability (CR)Average Variance Extracted (AVE)Outer Variance Inflation Factor (VIF)
Teaching Style (Authority)0.870.910.661.38
Teaching Style (Expert)0.890.920.681.45
Teaching Style (Personal Model)0.860.90.651.4
Teaching Style (Facilitator)0.880.930.691.43
Teaching Style (Delegator)0.850.890.621.39
ChatGPT Usage0.920.940.721.47
Foreign Language Classroom Anxiety (Communication Apprehension)0.860.90.641.35
Foreign Language Classroom Anxiety (Test Anxiety)0.880.920.671.41
Foreign Language Classroom Anxiety (Fear of Negative Evaluation)0.830.880.61.32
Motivation (Instrumentality)0.840.890.611.34
Motivation (Ethnocentrism and Integrativeness)0.860.90.631.36
Motivation (Attitude Toward Learning English)0.890.930.71.44
Creativity (Originality)0.880.920.671.41
Creativity (Flexibility)0.870.910.661.38
Creativity (Fluency)0.890.930.681.42
Creativity (Elaboration)0.850.90.631.37
Digital Literacy0.930.950.751.49

Table 4: Measurement model assessment. The table reports factor loadings, composite reliability (CR), average variance extracted (AVE), and outer variance inflation factor (VIF) for each construct and subdimension included in the partial least squares structural equation modeling (PLS-SEM) measurement model. These statistics were used to evaluate indicator reliability, internal consistency reliability, convergent validity, and multicollinearity.

Construct1234567891011121314151617
1. Teaching Style (Authority)
2. Teaching Style (Expert)0.702
3. Teaching Style (Personal Model)0.7430.581
4. Teaching Style (Facilitator)0.6290.7350.702
5. Teaching Style (Delegator)0.7540.5490.8020.692
6. ChatGPT Usage0.520.6430.7430.5360.693
7. Foreign Language Classroom Anxiety (Communication Apprehension)0.6650.5210.6490.5590.730.827
8. Foreign Language Classroom Anxiety (Test Anxiety)0.8320.6140.530.6220.6890.6310.567
9. Foreign Language Classroom Anxiety (Fear of Negative Evaluation)0.6080.8090.5850.6510.6370.6140.810.556
10. Motivation (Instrumentality)0.7620.6230.660.6340.8110.5340.8020.7550.519
11. Motivation (Ethnocentrism and Integrativeness)0.8030.6740.5710.5040.5170.8050.8270.7530.5620.554
12. Motivation (Attitude Toward Learning English)0.6260.8160.6770.5910.7420.7160.6330.5620.5980.5490.679
13. Creativity (Originality)0.6260.6780.5010.7320.5380.6780.8390.5430.5230.5770.6680.719
14. Creativity (Flexibility)0.7260.6690.8440.5280.6540.5790.5170.7750.6440.6670.6790.820.697
15. Creativity (Fluency)0.7110.6920.8150.6350.6290.5050.7920.8170.6040.550.5180.6040.590.626
16. Creativity (Elaboration)0.7490.7610.7830.690.8110.550.5030.8420.7320.7140.6590.7440.5430.6060.634
17. Digital Literacy0.6060.6410.5930.7420.7270.6280.6310.6480.7420.6880.8060.5780.6730.5490.70.529

Table 5: Discriminant validity assessed using the heterotrait–monotrait ratio (HTMT). The table presents HTMT values for all pairs of constructs and subdimensions included in the measurement model. HTMT was used to evaluate discriminant validity by assessing the empirical distinctiveness of the latent constructs. Values below the prespecified threshold of 0.85 indicate acceptable discriminant validity.

Table 4 summarizes the measurement model assessment. Factor loadings ranged from 0.83 to 0.93, exceeding the recommended threshold of 0.70 and indicating satisfactory indicator reliability. Composite reliability values ranged from 0.88 to 0.95, demonstrating high internal consistency across all constructs. The AVE values ranged from 0.60 to 0.75, exceeding the recommended minimum value of 0.50 and supporting convergent validity. In addition, all outer variance inflation factor (VIF) values were below 1.50, indicating no evidence of multicollinearity among the indicators. Overall, these findings support the reliability and validity of the measurement model for subsequent structural model evaluation.

Figure 3 illustrates the measurement model, including the latent constructs, their corresponding dimensions and indicators, and the relationships among the variables evaluated in the study.

figure-results-2
Figure 3. Partial least squares structural equation measurement model. The measurement model generated using partial least squares structural equation modeling (PLS-SEM) shows the relationships among the latent constructs, their dimensions, and their observed indicators. Values displayed on the connecting paths represent the estimated outer loadings or path coefficients, as applicable. Please click here to view a larger version of this figure.

Table 5 presents the HTMT results used to evaluate discriminant validity. All HTMT values were below the conservative threshold of 0.85, indicating satisfactory discriminant validity among the 17 constructs. The highest HTMT values were observed between Creativity (Flexibility) and Teaching Style (Personal Model) (0.8437), Creativity (Elaboration) and Anxiety (Test Anxiety) (0.8422), and Creativity (Originality) and Anxiety (Communication Apprehension) (0.8394). Although these values approached the recommended threshold, they remained below 0.85, supporting the empirical distinctiveness of the constructs. The remaining HTMT values were lower, further supporting discriminant validity across the measurement model.

Results of Hypothesis Testing (Structural Model)

The structural model was evaluated to examine the hypothesized relationships among teaching style, ChatGPT usage, digital literacy, motivation, FLCA, and creativity. The results supported all proposed direct and mediation hypotheses. Teaching style, ChatGPT usage, and digital literacy were positively associated with motivation. Motivation was negatively associated with FLCA, whereas FLCA was negatively associated with creativity. In addition, motivation mediated the relationships between teaching style, ChatGPT usage, and digital literacy and FLCA (Tables 6 and 7).

HypothesisStandardized Path Coefficient (β)t Valuep ValueSupported95% Confidence Interval (CI)Lower Limit (LLCI)Upper Limit (ULCI)
H1. Teaching style → EFL students' motivation0.365.45<0.001Yes[0.26, 0.46]0.260.46
H2. ChatGPT usage → EFL students' motivation0.46.27<0.001Yes[0.30, 0.50]0.30.5
H3. Digital literacy → EFL students' motivation0.334.95<0.001Yes[0.23, 0.43]0.230.43
H4. EFL students' motivation → foreign language classroom anxiety–0.27–4.81<0.001Yes[–0.37, –0.17]–0.37–0.17
H5. Foreign language classroom anxiety → EFL students' creativity–0.26–4.01<0.001Yes[–0.36, –0.16]–0.36–0.16

Table 6: Direct-effect hypothesis testing. The table presents the results of the direct-effect analyses performed using partial least squares structural equation modeling (PLS-SEM). Reported statistics include the standardized path coefficient (β), t value, p value, 95% bootstrap confidence interval (CI), lower limit of the confidence interval (LLCI), upper limit of the confidence interval (ULCI), and the decision regarding hypothesis support. Statistical significance was assessed using bootstrapping with 5,000 resamples.

HypothesisMediation PathStandardized Indirect Effect (β)t Valuep ValueSupported95% Confidence Interval (CI)Lower Limit (LLCI)Upper Limit (ULCI)
H6Teaching style → Motivation → Foreign language classroom anxiety0.284.56<0.001Yes[0.18, 0.38]0.180.38
H7ChatGPT usage → Motivation → Foreign language classroom anxiety0.345.02<0.001Yes[0.24, 0.44]0.240.44
H8Digital literacy → Motivation → Foreign language classroom anxiety0.34.68<0.001Yes[0.20, 0.40]0.200.40

Table 7: Mediation analysis. The table summarizes the indirect effects estimated using partial least squares structural equation modeling (PLS-SEM). Reported statistics include the standardized indirect effect (β), t value, p value, 95% bootstrap confidence interval (CI), lower limit of the confidence interval (LLCI), upper limit of the confidence interval (ULCI), and the decision regarding hypothesis support. Statistical significance was evaluated using bootstrapping with 5,000 resamples.

Table 6 presents the results of the direct-effect analyses. All five hypothesized direct relationships were statistically significant (p < 0.001), supporting hypotheses H1–H5. Teaching style (β = 0.36), ChatGPT usage (β = 0.40), and digital literacy (β = 0.33) were positively associated with EFL students’ motivation, with ChatGPT usage demonstrating the largest standardized path coefficient among the three predictors. Motivation was negatively associated with FLCA (β = –0.27), indicating that higher motivation corresponded to lower levels of anxiety. In turn, FLCA was negatively associated with creativity (β = –0.26). The 95% bootstrap confidence intervals for all direct effects excluded zero, supporting the statistical significance of the hypothesized relationships. Table 7 presents the mediation analyses examining whether motivation mediated the relationships between teaching style, ChatGPT usage, and digital literacy and FLCA. The indirect effects were statistically significant for all three pathways (H6: β = 0.28, t = 4.56, p < 0.001; H7: β = 0.34, t = 5.02, p < 0.001; H8: β = 0.30, t = 4.68, p < 0.001). The 95% bootstrap confidence intervals excluded zero for all indirect effects, supporting the statistical significance of the mediation pathways. The positive indirect coefficients reflect the overall magnitude of the indirect effects through motivation, whereas the direct relationship between motivation and FLCA was negative, as reported in the structural model. Consequently, higher levels of teaching style, ChatGPT usage, and digital literacy were associated with higher motivation, which, in turn, was associated with lower FLCA (Tables 6 and 7). Overall, the structural model supported all hypothesized direct (H1–H5) and indirect (H6–H8) relationships. The findings indicate statistically significant associations among teaching style, ChatGPT usage, digital literacy, motivation, FLCA, and creativity, with motivation acting as the significant mediator evaluated in the structural model.

Dimensional Analysis of Teaching Style

A dimensional analysis was conducted to examine the relationships between the five teaching style dimensions and EFL students’ motivation, FLCA, and creativity. The teaching style dimensions included Authority, Expert, Personal Model, Facilitator, and Delegator. The structural model estimated the direct effects of each teaching style dimension on the three outcome variables to determine whether the observed relationships differed across teaching approaches (Table 8).

Teaching Style DimensionOutcome VariableStandardized Path Coefficient (β)t Valuep ValueLower Limit of the 95% Confidence Interval (LLCI)Upper Limit of the 95% Confidence Interval (ULCI)Supported
AuthorityMotivation0.121.850.065–0.020.26No
AuthorityForeign language classroom anxiety0.355.12<0.0010.220.48Yes
AuthorityCreativity–0.28–4.02<0.001–0.42–0.14Yes
ExpertMotivation0.34.89<0.0010.180.42Yes
ExpertForeign language classroom anxiety–0.18–2.950.003–0.30–0.06Yes
ExpertCreativity0.223.56<0.0010.10.34Yes
Personal ModelMotivation0.254.02<0.0010.130.37Yes
Personal ModelForeign language classroom anxiety–0.22–3.450.001–0.35–0.09Yes
Personal ModelCreativity0.243.78<0.0010.120.36Yes
FacilitatorMotivation0.345.5<0.0010.220.46Yes
FacilitatorForeign language classroom anxiety–0.28–4.45<0.001–0.40–0.16Yes
FacilitatorCreativity0.314.95<0.0010.190.43Yes
DelegatorMotivation0.294.62<0.0010.170.41Yes
DelegatorForeign language classroom anxiety–0.24–3.85<0.001–0.37–0.11Yes
DelegatorCreativity0.274.25<0.0010.150.39Yes

Table 8: Dimensional analysis of teaching style. The table reports the direct relationships between the Authority, Expert, Personal Model, Facilitator, and Delegator teaching style dimensions and the outcome variables of motivation, foreign language classroom anxiety, and creativity. Reported statistics include the standardized path coefficient (β), t value, p value, lower limit of the 95% bootstrap confidence interval (LLCI), upper limit of the 95% bootstrap confidence interval (ULCI), and the decision regarding hypothesis support.

Table 8 presents the results of the dimensional analysis of teaching styles. The Facilitator teaching style demonstrated the strongest positive associations with motivation (β = 0.34, p < 0.001) and creativity (β = 0.31, p < 0.001), together with the strongest negative association with FLCA (β = –0.28, p < 0.001). The Expert, Personal Model, and Delegator teaching styles were also positively associated with motivation (β = 0.30, 0.25, and 0.29, respectively) and creativity (β = 0.22, 0.24, and 0.27, respectively), while showing negative associations with FLCA (β = –0.18, –0.22, and –0.24, respectively). All of these relationships were statistically significant. In contrast, the Authority teaching style was not significantly associated with motivation (β = 0.12, p = 0.065). However, it showed a significant positive association with FLCA (β = 0.35, p < 0.001) and a significant negative association with creativity (β = –0.28, p < 0.001). Overall, the dimensional analysis demonstrates distinct patterns of association between individual teaching style dimensions and the measured learning outcomes. Taken together, the dimensional analysis indicates that the associations between teaching style and student outcomes vary across teaching style dimensions. Statistically significant relationships were observed for most teaching style dimensions, whereas the Authority teaching style did not demonstrate a statistically significant association with motivation.

Predictive Validity of the Inner Model Using PLS Predict

The predictive validity of the structural model was evaluated using the PLS Predict procedure to assess the model’s out-of-sample predictive performance. Predictive relevance was evaluated using the Q2 Predict statistic together with prediction error measures, including the root mean square error (RMSE) and the mean absolute error (MAE). The Q2 Predict values ranged from 0.32 to 0.48 across the endogenous constructs, indicating positive predictive relevance. Motivation and creativity demonstrated the highest Q2 Predict values (0.42 and 0.48, respectively). Prediction error values were also examined, with RMSE ranging from 0.54 to 0.63 and MAE ranging from 0.41 to 0.49 across the endogenous constructs (Table 9).

ConstructCoefficient of Determination
(R²)
Predictive Relevance
(Q² Predict)
Root Mean Square Error
(RMSE)
Mean Absolute Error
(MAE)
Motivation0.450.420.610.48
Foreign Language Classroom Anxiety0.380.320.630.49
Creativity0.420.480.540.41

Table 9: Predictive performance of the structural model. The table summarizes the predictive performance of the endogenous constructs evaluated using partial least squares structural equation modeling (PLS-SEM). Reported statistics include the coefficient of determination (R2), predictive relevance (Q2 Predict), root mean square error (RMSE), and mean absolute error (MAE). Higher R2 and Q2 Predict values indicate greater explanatory and predictive performance, whereas lower RMSE and MAE values indicate lower prediction error.

Table 9 summarizes the predictive performance of the structural model. The coefficient of determination (R2) indicated that the model explained 45% of the variance in motivation, 38% of the variance in FLCA, and 42% of the variance in creativity. The Q2 Predict values for motivation (0.42), FLCA (0.32), and creativity (0.48) were all greater than zero, supporting the predictive relevance of the model. The RMSE values ranged from 0.54 to 0.63, whereas the MAE values ranged from 0.41 to 0.49, indicating the prediction errors for the endogenous constructs. Overall, the predictive performance measures support the predictive capability of the structural model.

Figure 4 illustrates the predictive performance of the endogenous constructs by presenting the coefficient of determination (R2), predictive relevance (Q2 Predict), and prediction error measures (RMSE and MAE). Among the endogenous constructs, creativity showed the highest Q2 Predict value (0.48) together with the lowest prediction errors (RMSE = 0.54; MAE = 0.41), whereas motivation demonstrated the highest explained variance (R2 = 0.45) (Figure 4). Overall, the PLS Predict analysis demonstrated positive predictive relevance for all endogenous constructs. The R2, Q2 Predict, RMSE, and MAE results collectively support the predictive performance of the structural model for motivation, FLCA, and creativity (Table 9; Figure 4).

figure-results-3
Figure 4. Predictive performance of the structural model. The graph presents the coefficient of determination (R2), root mean square error (RMSE), mean absolute error (MAE), and Q2 predict values for the endogenous constructs of motivation, anxiety, and creativity. Bars represent R2, RMSE, and MAE values, and the line with circular markers represents Q2 predict values. Higher R2 and Q2 predict values indicate greater explanatory and predictive performance, respectively, whereas lower RMSE and MAE values indicate lower prediction error. Please click here to view a larger version of this figure.

Data Availability:

The anonymized participant-level dataset supporting the findings of this study is provided as Supplementary Table 1. The participant information sheet and informed consent form are available in Supplementary File 1, and the survey questionnaire used for data collection is provided in Supplementary File 2.

Supplementary Table 1. Raw participant dataset used for statistical analyses. This table contains the anonymized participant-level dataset used for the statistical analyses. Variables include demographic information and item-level responses for teaching style, ChatGPT usage, digital literacy, motivation, foreign language classroom anxiety, and creativity. Item labels (e.g., TL1, CHATGPT1, DL1, M1, FLCA1, CR1) correspond to the questionnaire items described in the Tools and Measures section. No personally identifiable information is included.Please click here to download this file.

Supplementary File 1. Participant information sheet and informed consent form. This supplementary file contains the participant information sheet and informed consent form used for participant recruitment. It describes the study objectives, eligibility, study procedures, voluntary participation, potential risks and benefits, confidentiality, data protection, and contact information provided to participants before completion of the questionnaire.Please click here to download this file.

Supplementary File 2. Survey questionnaire used for data collection. This supplementary file contains the complete questionnaire administered to participants. The instrument includes demographic questions and item-level measures assessing teaching style, ChatGPT usage, digital literacy, motivation, foreign language classroom anxiety, and creativity. Responses were recorded using a 5-point Likert scale ranging from 1 (Strongly Disagree) to 5 (Strongly Agree). The questionnaire items correspond to the measurement instruments described in the Tools and Measures section of the manuscript.Please click here to download this file.

Discussion

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This study investigated the relationships among teaching style, ChatGPT usage, digital literacy, motivation, FLCA, and creativity among Saudi EFL undergraduates, with particular attention to the mediating role of motivation. The findings provide evidence regarding the relationships among pedagogical practices, technology use, and learner characteristics in technology-enhanced language learning. The positive association between teaching style and EFL students’ motivation (H1 supported) is consistent with SDT, which proposes that autonomy-supportive teaching practices facilitate intrinsic motivation by satisfying students’ basic psychological needs for autonomy, competence, and relatedness61. The observed findings suggest that learner-centered teaching approaches, such as the Facilitator and Delegator styles, are associated with higher levels of student engagement and sustained interest in language learning. These findings are consistent with previous research reporting that teaching styles characterized by flexibility, responsiveness, and opportunities for student participation are associated with greater motivational engagement than more teacher-centered approaches62. Within the Saudi context, where educational reforms under Vision 2030 encourage learner-centered pedagogies, the observed positive association may reflect the implementation of these instructional approaches in EFL classrooms63. The significant positive association between ChatGPT usage and motivation (H2 supported) can also be interpreted within established theoretical frameworks. From the perspective of SDT, ChatGPT may support learners’ autonomy by enabling self-directed language practice and may foster competence through immediate and personalized feedback64. In addition, its conversational interface may provide opportunities for authentic language practice outside the classroom, which may enhance learners’ engagement with English language learning65. These observations suggest that ChatGPT may function as a supportive learning resource that complements classroom instruction. The Technology Acceptance Model further provides a theoretical explanation for this relationship by proposing that learners who perceive ChatGPT as useful and easy to use are more likely to engage with the technology, thereby supporting continued learning. Similarly, the positive association between digital literacy and motivation (H3 supported) highlights the importance of students’ ability to effectively use digital learning technologies. Students with higher levels of digital literacy may be better positioned to utilize AI-supported learning tools efficiently, experience fewer technological barriers, and recognize the educational value of technology integration66. In the Saudi context, where substantial investments have been made in digital infrastructure and educational technologies67, these findings underscore the potential contribution of digital literacy to technology-enhanced language learning.

A central contribution of this study is the identification of motivation as a significant mediator of the relationships between teaching style, ChatGPT usage, digital literacy, and FLCA (H6–H8 supported). The negative association between motivation and FLCA (H4 supported) is consistent with theoretical perspectives suggesting that intrinsic motivation serves as a psychological resource that helps learners cope with the emotional challenges associated with language acquisition68. Motivated students may be more likely to persist when encountering linguistic difficulties, view errors as opportunities for learning, and maintain self-efficacy during challenging language tasks, such as oral presentations and examinations. The negative association between FLCA and creativity (H5 supported) is also consistent with previous research indicating that anxiety may limit learners’ willingness to experiment with novel linguistic forms and engage in creative language use69. In the Saudi EFL context, where FLCA has been identified as a barrier to language learning, these findings highlight the importance of learning environments that support student motivation while reducing emotional barriers to participation. The mediation analyses further suggest that motivation represents an important mechanism through which supportive teaching practices, ChatGPT usage, and digital literacy are associated with lower levels of FLCA. These findings extend previous research by highlighting the potential role of motivation in linking instructional and technological factors with learner outcomes within Saudi EFL classrooms.

The dimensional analysis of teaching style (Table 8) revealed distinct patterns across the five teaching style dimensions. The Authority teaching style was associated with higher levels of FLCA and lower creativity, while its association with motivation was not statistically significant. In contrast, the Facilitator, Expert, Personal Model, and Delegator teaching styles were positively associated with motivation and creativity and negatively associated with foreign language classroom anxiety. These findings suggest that teaching styles may differ in their relationships with learners’ motivational, emotional, and creative outcomes. One possible explanation is provided by SDT, which proposes that teaching approaches supporting learner autonomy are more likely to foster intrinsic motivation, whereas highly directive instructional approaches may provide structure but offer fewer opportunities for autonomous engagement. Within the Saudi educational context, structured instructional approaches may reduce uncertainty for some learners by providing clear expectations and guidance. At the same time, greater teacher control may reduce opportunities for independent learning and creative language use. These findings suggest that instructional approaches balancing clear guidance with opportunities for learner autonomy may support positive educational outcomes. Future studies using longitudinal or experimental designs would help clarify these relationships and examine how different teaching styles influence motivation, foreign language classroom anxiety, and creativity over time.

This study contributes to the theoretical understanding of EFL learning by integrating SDT and the Technology Acceptance Model to examine how pedagogical approaches and AI-supported learning are associated with learner outcomes through motivation. The findings suggest that teaching style, ChatGPT usage, and digital literacy are associated with motivation, which, in turn, is associated with foreign language classroom anxiety. The findings also support the application of SDT within technology-enhanced language learning by indicating that opportunities for self-directed practice and personalized feedback provided by ChatGPT may support learners’ psychological needs for autonomy and competence. In addition, the dimensional analysis of teaching styles highlights that different instructional approaches are associated with distinct learner outcomes, suggesting that the effectiveness of teaching styles may depend on the educational context and the specific outcomes being considered. The findings also have practical implications for EFL teaching and educational policy in Saudi Arabia. Teacher professional development programs may benefit from emphasizing instructional approaches that balance clear guidance with opportunities for learner autonomy, thereby supporting student motivation while reducing foreign language classroom anxiety. The integration of AI-supported tools, such as ChatGPT, into language instruction may provide additional opportunities for brainstorming, drafting, and conversational practice when accompanied by appropriate pedagogical guidance. Likewise, digital literacy initiatives may help students develop the skills required to use AI-supported learning technologies effectively, including information evaluation, ethical technology use, and strategic application of AI tools. At the institutional level, continued investment in digital infrastructure, curriculum development that incorporates technology-enhanced learning activities, and assessment practices that encourage meaningful language use may further support student learning. In addition, learning environments that provide emotional support through low-stakes learning opportunities, constructive feedback, peer collaboration, and recognition of creative language use may contribute to improved motivation and reduced foreign language classroom anxiety. Collectively, these findings may inform educational practices and policy initiatives that support technology-enhanced language learning within the broader objectives of Saudi Vision 2030.

This study examined the relationships among teaching style, ChatGPT usage, digital literacy, motivation, foreign language classroom anxiety, and creativity among Saudi EFL undergraduates, with particular attention to the mediating role of motivation. The findings indicate that teaching style, ChatGPT usage, and digital literacy were positively associated with students’ motivation. In turn, motivation was negatively associated with foreign language classroom anxiety, whereas FLCA was negatively associated with creativity. These findings suggest that motivation is an important mechanism linking pedagogical and technological factors with learner outcomes in Saudi EFL classrooms. The findings also highlight the importance of learning environments that support both students’ motivational and emotional needs. The dimensional analysis of teaching styles demonstrated that the Authority teaching style was associated with higher levels of FLCA and lower creativity, whereas the Facilitator, Expert, Personal Model, and Delegator teaching styles were associated with higher motivation and creativity and lower anxiety. These results suggest that instructional approaches balancing clear guidance with opportunities for learner autonomy may support positive learning experiences and language development. Within the context of Saudi Vision 2030, the findings have practical implications for language education. The integration of learner-centered teaching strategies, AI-supported learning tools such as ChatGPT, and digital literacy development may contribute to technology-enhanced language learning while supporting student motivation and reducing foreign language classroom anxiety. Collectively, this study provides evidence supporting the role of pedagogical practices, AI-supported learning, and digital competence in EFL education and offers a foundation for future longitudinal and intervention-based research examining these relationships in diverse educational settings.

Several limitations of this study should be acknowledged. First, the cross-sectional study design limits the ability to draw causal inferences regarding the relationships among the study variables. Although the theoretical framework proposes directional relationships, the findings should be interpreted as associations rather than evidence of causality. Future research should employ longitudinal designs to examine changes in motivation, foreign language classroom anxiety, and creativity over time, as well as experimental or intervention-based designs to evaluate the proposed relationships more rigorously. Such studies could investigate whether instructional approaches that emphasize learner autonomy are associated with subsequent changes in motivation, foreign language classroom anxiety, and creativity. Second, the sample was drawn from a single public university in Saudi Arabia, which may limit the generalizability of the findings to other educational and cultural contexts. The characteristics of Saudi higher education, including assessment practices, ongoing educational reforms, and cultural perspectives on teacher authority, may influence the observed relationships. Future research should examine these relationships across multiple institutions and regions within Saudi Arabia and in other countries to determine the consistency of the findings across diverse educational settings. Third, this study relied on self-reported data, which may be affected by social desirability bias, recall bias, and common method variance. Although validated measurement instruments and pretesting procedures were employed, future studies could incorporate additional data sources, such as classroom observations, learning analytics, AI usage records, or performance-based assessments of language proficiency and creativity, to provide complementary evidence. Multi-method and mixed-methods approaches may further strengthen understanding of the relationships identified in this study. Finally, the dimensional analysis of teaching styles identified distinct associations between the Authority teaching style and learner outcomes. Future qualitative research, including interviews, focus groups, and classroom observations, could provide further insight into how different teaching styles influence students’ motivation, foreign language classroom anxiety, and creativity, particularly within the Saudi EFL context. Such work would complement the present findings and contribute to a more comprehensive understanding of technology-enhanced language learning.

Disclosures

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Conflict of Interest:

The author declares no conflicts of interest.

Materials

List of materials used in this article
NameCompanyCatalog NumberComments
ChatGPT usage scale (adapted)Authors; adapted from Abbas et al.N/AEight-item questionnaire assessing students' use of ChatGPT for language learning.
Creativity scale (adapted)Authors; adapted from Govindasamy et al.N/ATwelve-item questionnaire assessing originality, flexibility, fluency, and elaboration.
Digital literacy scale (adapted)Authors; adapted from Rodríguez-de-Dios et al.N/ATwenty-nine-item questionnaire measuring six dimensions of digital literacy.
Foreign language classroom anxiety (FLCA) scale (adapted)Authors; adapted from Briesmaster & BriesmasterN/ATwenty-seven-item questionnaire measuring communication apprehension, test anxiety, and fear of negative evaluation.
G*PowerHeinrich Heine University DüsseldorfVersion 3.1.9.7; RRID: SCR_013726Software used for post hoc statistical power analysis.
IBM SPSS StatisticsIBM Corp.Version 26; RRID: SCR_002865Statistical software used for data cleaning, descriptive statistics, reliability analyses, and preliminary analyses.
Mahalanobis distance analysisIBM SPSS StatisticsVersion 26; RRID: SCR_002865Statistical procedure implemented in IBM SPSS Statistics to identify multivariate outliers.
Motivation scale (adapted)Authors; adapted from Kanoksilapatham et al.N/ATwenty-item questionnaire assessing learner motivation.
Paper questionnaireAuthorsN/APrinted version of the structured self-administered questionnaire used for in-person data collection.
Secure online survey platformGoogle LLCN/AGoogle Forms platform used for electronic questionnaire distribution.
SmartPLSSmartPLS GmbHVersion 4; RRID: SCR_036419Software used for Partial Least Squares Structural Equation Modeling (PLS-SEM), including measurement model evaluation, structural model analysis, bootstrapping (5,000 resamples), and mediation analysis.
Structured self-administered questionnaireAuthorsN/AQuestionnaire administered in paper and electronic formats using a 5-point Likert scale (1 = Strongly Disagree to 5 = Strongly Agree).
Teaching Style Inventory (adapted)Authors; adapted from Grasha's Teaching Style InventoryN/AQuestionnaire measuring Authority, Expert, Personal Model, Facilitator, and Delegator teaching styles.
University communication channelsUniversity of JeddahN/AOfficial email and classroom announcements used for participant recruitment.

References

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$$\rightleftharpoonup{xx}$$ $$\longleftharp{xx}$$, $$\longrightharp{xx}$$,
  1. Ansa H. Exploring the role of artificial intelligence (AI) in enhancing EFL education in Saudi Arabia: A review of opportunities, obstacles, and future directions. Educ Sci. 2026;16(6):981.
  2. Alshehri A, Aldossary S, Jamshed M, Banu S. Incorporating ChatGPT in Saudi EFL classrooms: Oscillating between expectations and anxiety. J Lang Teach Res. 2025;16(5):1673-81.
  3. Alzubi AA, Alelaiwi AS. Exploring EFL university teachers’ perceptions of AI-generative tools in Saudi Arabia: A mixed-methods study. Discov Comput. 2025;28(1):282.
  4. Alzubi AA, Nazim M, Alyami N. Do AI-generative tools kill or nurture creativity in EFL teaching and learning? Educ Inf Technol. 2025;30(11):15147-84.
  5. Allehyani FS, Albedah F, Jamshed M, Warda WU. Exploring Saudi EFL learners’ engagement with AI generative tools in educational settings: Perceptions, practices, and pedagogical outcomes. Theory Pract Lang Stud. 2025;15(6):1959-66.
  6. Almusharraf A, Bailey D. Generative AI use among Saudi and Korean language learners in higher education: Examination through a modified TAM framework. SAGE Open. 2025;15(4):21582440251387804.
  7. Alharbi MA, Hassan Al-Ahdal AA. Exploring Saudi EFL learners’ engagement with ChatGPT: A mixed-methods study of perceptions, attitudes, and intentions. SAGE Open. 2025;15(4):21582440251392080.
  8. Khoso AK, Honggang W, Darazi MA. Empowering creativity and engagement: The impact of generative artificial intelligence usage on Chinese EFL students’ language learning experience. Comput Hum Behav Rep. 2025;18:100627.
  9. Alalwi FS, Alqahtani N, Jamshed M, Ahmmed MF. AI-driven feedback for pedagogical innovation: Assessing ChatGPT’s impact on Saudi EFL learners’ writing proficiency. World. 2026;16(5).
  10. Alshehri N. Speaking with AI: Exploring EFL learners’ attitudes, engagement, and satisfaction through ChatGPT conversations. 2026. 10.2139/ssrn.6595190
  11. Metwally AA, Bin-Hady WR. Probing the necessity and advantages of AI integration training for EFL educators in Saudi Arabia. Cogent Educ. 2025;12(1):2472462.
  12. Elmahdi OE, et al. AI-Driven Vocabulary Acquisition in EFL Higher Education: Interdisciplinary Insights into Technological Innovation, Ethical Challenges, and Equitable Access. Forum Linguist Stud. 2025;7(4):477–491.
  13. Al-Nofaie H, Alwerthan TA. Appreciative inquiry into implementing artificial intelligence for the development of language student teachers. Sustainability (Basel). 2024;16(21):9361.
  14. Alshayban A. Exploring EFL learners’ use of AI outside the classroom. J Lang Teach Res. 2026;17(1).
  15. Abdelhalim SM, Alsehibany RA. Integrating AI-powered tools in EFL pronunciation instruction: Effects on accuracy and L2 motivation. Comput Assist Lang Learn. 2025;38:1-25.
  16. Khoso AK, Honggang W, Darazi MA. Trust and attitude towards AI as pathways to creativity: A TAM model study of EFL students’ digital literacy and AI acceptance. Humanit Soc Sci Commun. 2025;13(1):69.
  17. Xiong X. Influence of teaching styles of higher education teachers on students’ engagement in learning: The mediating role of learning motivation. Educ Chem Eng. 2025;51:87-102.
  18. Bartholomew KJ, et al. Beware of your teaching style: A school-year-long investigation of controlling teaching and student motivational experiences. Learn Instr. 2018;53:50-63.
  19. Wiangga IA. The impact of educators’ teaching styles on secondary school learners’ motivation in English. J Educ Manag Strategy. 2024;3(2):136-44.
  20. Sheikh A, Mahmood N. Effect of different teaching styles on students’ motivation towards English language learning at secondary level. Sci Int (Lahore). 2014;26:825-30.
  21. Marina I, Natalia M, Tatiana K, Nataliya S. The influence of the teaching style of communication on the motivation of students to learn foreign languages. J Lang Educ. 2019;5(2):67-77.
  22. Zalukhu FS, Laoli A, Zebua EP, Daeli H. The influence of teacher teaching styles on English learning motivation of eighth-grade students at SMP Negeri 1 Afulu. J Pembelajaran Bahasa dan Sastra. 2026;5(2):1545-54.
  23. Yue X, Hou X, Zhang J, Li M. The impact of controlling teaching style on student engagement and academic achievement: Differences across varied motivation profiles. Teach Teach Educ. 2026;176:105479.
  24. Idhaufi NL, Ashari ZM. Relationship between motivation and teachers’ teaching style among secondary school students in Kulai. Man India. 2017;97(12):299-307.
  25. Zolfaghari M, Janghorbanian Z, Krevan Brojerdi K, Aghaziarati A. Investigation of the role of teaching styles and student-teacher interaction in students’ academic achievement motivation. Educ Strateg Med Sci. 2020;13(3):220-8.
  26. Avecilla PA, Capiña XE, Javier AY. Teachers’ teaching style as perceived by students and its influence on students’ level of self-regulation and motivation in learning psychology. Technium Soc Sci J. 2023;43:213-24.
  27. Khoso AK, et al. The dual forces of AI: How generative AI and perceived AI dependency influence fear of missing out (FoMO) and EFL students’ vocabulary acquisition. J Vis Exp. 2025;(226):e69637.
  28. Ali JK, Shamsan MA, Hezam TA, Mohammed AA. Impact of ChatGPT on learning motivation: Teachers’ and students’ voices. J Engl Stud Arabia Felix. 2023;2(1):41-9.
  29. Song C, Song Y. Enhancing academic writing skills and motivation: Assessing the efficacy of ChatGPT in AI-assisted language learning for EFL students. Front Psychol. 2023;14:1260843.
  30. Khoso AK, et al. Integrating Sustainable Development Goals (SDGs) and generative AI to enhance language digital literacy and creativity in EFL learning environments. J Vis Exp. 2026;(228):e69445.
  31. Balcı Ö. The role of ChatGPT in English as a foreign language (EFL) learning and teaching: A systematic review. Int J Curr Educ Stud. 2024;3(1):66-82.
  32. Yamaoka K. ChatGPT’s motivational effects on Japanese university EFL learners: A qualitative analysis. Int J TESOL Stud. 2024;6(3).
  33. Afkarin MY, Asmara CH. Investigating the implementation of ChatGPT in English language education: Effects on student motivation and performance levels. Journey J Engl Lang Pedagogy. 2024;7(1):57-66.
  34. Alrabai F. The influence of teachers’ anxiety-reducing strategies on learners’ foreign language anxiety. Innov Lang Learn Teach. 2015;9(2):163-90.
  35. Kang S, Kim Y. Examining the quality of mobile-assisted video-making task outcomes: The role of proficiency, narrative ability, digital literacy, and motivation. Lang Teach Res. 2024;28(6):2326-53.
  36. Honggang W, Khoso AK, Althubyani AR. Technostress, digital fatigue, and AI dependency as antecedents of burnout and SDG-4 achievement in EFL classrooms. Sci Rep. 2026;16:15412.
  37. Sari AA, Ningsih SK. The influence of digital literacy in social media use on high school students’ intrinsic motivation in EFL learning. IDEAS J Engl Lang Teach Learn Linguist Lit. 2025;13(2):6634-51.
  38. Zhang Y. Impact of digital literacy on college students’ English proficiency: The mediating role of learning motivation and the moderating effect of technological self-efficacy. Acta Psychol (Amst). 2025;259:105452.
  39. Bender SM. Awareness of artificial intelligence as an essential digital literacy: ChatGPT and Gen-AI in the classroom. Changing Engl. 2024;31(2):161-74.
  40. Khoso AK, et al. The impact of ESL teachers’ emotional intelligence on ESL students’ academic engagement, reading and writing proficiency: Mediating role of ESL students’ motivation. Int J Early Child Spec Educ. 2022;14:3267-80.
  41. He M, Abbasi BN, He J. AI-driven language learning in higher education: An empirical study on self-reflection, creativity, anxiety, and emotional resilience in EFL learners. Humanit Soc Sci Commun. 2025;12(1):1-20.
  42. Wang HC. Exploring the relationships of achievement motivation and state anxiety to creative writing performance in English as a foreign language. Think Skills Creat. 2021;42:100948.
  43. Khan MA, Mahjabeen AN, Hussain F, Ur Rehman M. Investigating the correlation between writing anxiety and English creativity in Pakistani ESL students. Russ Law J. 2021;9(1):214-24.
  44. McDonough K, Crawford WJ, Mackey A. Creativity and EFL students’ language use during a group problem-solving task. TESOL Q. 2015;49(1):188-99.
  45. Rubino C, Luksyte A, Perry SJ, Volpone SD. How do stressors lead to burnout? The mediating role of motivation. J Occup Health Psychol. 2009;14(3):289-304.
  46. Halbesleben JRB, Bowler WM. Emotional exhaustion and job performance: The mediating role of motivation. J Appl Psychol. 2007;92(1):93-106.
  47. van Emmerik IJH, et al. The route to employability: Examining resources and the mediating role of motivation. Career Dev Int. 2012;17(2):104-19.
  48. Dana LP, et al. The impact of entrepreneurial education on technology-based enterprise development: The mediating role of motivation. Adm Sci (Basel). 2021;11(4):105.
  49. Kholifah N, Nurtanto M, Mutohhari F, et al. The mediating role of motivation and professional development in determining teacher performance in vocational schools. Cogent Educ. 2024;11(1):2421094.
  50. Güngör P. The relationship between reward management system and employee performance with the mediating role of motivation: A quantitative study on global banks. Procedia Soc Behav Sci. 2011;24:1510-20.
  51. Danish RQ, Khan MK, Shahid AU, et al. Effect of intrinsic rewards on task performance of employees: Mediating role of motivation. Int J Organ Leadersh. 2015;4:33-46.
  52. Mavhungu D, Bussin MH. The mediation role of motivation between leadership and public sector performance. SA J Hum Resour Manag. 2017;15(1):1-11.
  53. Faul F, Erdfelder E, Buchner A, Lang AG. Statistical power analyses using G*Power 3.1: Tests for correlation and regression analyses. Behav Res Methods. 2009;41(4):1149-60.
  54. Rodríguez-de-Dios I, Igartua JJ, González-Vázquez A. Development and validation of a digital literacy scale for teenagers. In: Proceedings of the Fourth International Conference on Technological Ecosystems for Enhancing Multiculturality; 2016. p. 1067-72.
  55. Abbas M, Jam FA, Khan TI. Is it harmful or helpful? Examining the causes and consequences of generative AI usage among university students. Int J Educ Technol High Educ. 2024;21(1):10.
  56. Grasha AF. Teaching with style: The integration of teaching and learning styles in the classroom. Alliance Publishers; Pittsburgh (PA); 1996.
  57. Briesmaster M, Briesmaster-Paredes J. The relationship between teaching styles and NNPSETs’ anxiety levels. System. 2015;49:145-56.
  58. Kanoksilapatham B, et al. Motivation of Thai university students from two disciplinary backgrounds using a hybrid questionnaire. LEARN J Lang Educ Acquis Res Netw. 2021;14(1):455-91.
  59. Govindasamy P, Cumming TM, Abdullah N. Validity and reliability of a needs analysis questionnaire for the development of a creativity module. J Res Spec Educ Needs. 2024;24(3):637-52.
  60. Hair JF, Risher JJ, Sarstedt M, Ringle CM. When to use and how to report the results of PLS-SEM. Eur Bus Rev. 2019;31(1):2-24.
  61. Zhang R, et al. Mediating effect of learning motivation and engagement on the relationship between generative artificial intelligence implementation and English as a foreign language proficiency. 2026. https://doi.org/10.21203/rs.3.rs-9075280/v1.
  62. Almira NF, Almira ZF, Vircavani C, Agustina E. A systematic review of teachers’ teaching styles and their impact on EFL student learning outcomes. J Appl Linguist Engl Educ. 2025;3(1):1-5.
  63. Reeve J. Teachers as facilitators: What autonomy-supportive teachers do and why their students benefit. Elem Sch J. 2006;106(3):225-36.
  64. Huang S, Dong L, Wang W, et al. Language is not all you need: Aligning perception with language models. In: Advances in Neural Information Processing Systems. 2023;36:72096-109.
  65. Liu L. An international graduate student’s ESL learning experience beyond the classroom. TESL Can J. 2011;29(1):77-92.
  66. van Laar E, van Deursen AJAM, van Dijk JAGM, De Haan J. The relation between 21st-century skills and digital skills: A systematic literature review. Comput Hum Behav. 2017;72:577-88.
  67. Al-Kahtani N. A survey assessing health science students’ perceptions of online learning at a Saudi higher education institution during the COVID-19 pandemic. Heliyon. 2022;8(9):e10688.
  68. Dewaele JM, Chen X, Padilla AM, Lake J. The flowering of positive psychology in foreign language teaching and acquisition research. Front Psychol. 2019;10:2128.
  69. Liu W, Li Y. A qualitative study of question-posing anxiety in Chinese postgraduates in UK TESOL programs. Sci Rep. 2025;16(1):2081.

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English Language EducationForeign Language AnxietyStudent MotivationDigital LiteracyTeaching StyleChatGPT UseCreativity DevelopmentSaudi EFL ClassroomsStructural Equation Modeling

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