Interactive Engagement with Self-Paced Learning Content in a Didactic Course

Article information

Healthc Inform Res. 2025;31(1):96-106
Publication date (electronic) : 2025 January 31
doi : https://doi.org/10.4258/hir.2025.31.1.96
Mike Petryk School of Dentistry, Faculty of Medicine & Dentistry, College of Health Sciences, University of Alberta, Edmonton, Canada
Corresponding Author: Nazlee Sharmin, Mike Petryk School of Dentistry, Faculty of Medicine & Dentistry, College of Health Sciences, University of Alberta, Edmonton, AB T6G 1C9, Canada. Tel: +1-780-492-6428, E-mail: nazlee@ualberta.ca (https://orcid.org/0000-0002-2408-2333)
Received 2024 June 27; Revised 2024 November 12; Accepted 2024 December 14.

Abstract

Objectives

A growing number of health professional institutions around the world are embracing innovative technologies to increase student engagement, primarily to improve clinical and simulated learning experiences. Didactic learning is an essential component of dental and medical curricula. However, limited research is available regarding the implementation of technology-infused teaching in classroom settings. We developed self-paced interactive learning content using the HTML5 Package (H5P) to promote student engagement in a didactic course within a dental hygiene program.

Methods

A total of 52 interactive artifacts were created and administered to students as supplementary learning material. A descriptive study was conducted to explore student perceptions and engagement with the H5P content, as well as to evaluate the impact of these artifacts on academic performance.

Results

Students performed significantly better on exam questions associated with interactive H5P content posted in the learning management system compared to other questions. Most students were highly engaged with the H5P content during the week leading up to each summative assessment. However, two of the three students with the highest course grades demonstrated consistent engagement with this content throughout the course.

Conclusions

Our results highlight the effectiveness of interactive content created using the H5P platform in fostering student engagement. The development of self-paced interactive materials may benefit various aspects of didactic teaching, including both synchronous and asynchronous online learning.

I. Introduction

Medical and dental schools around the world strive to increase student engagement through the integration of innovative teaching technologies [1]. The effects of student engagement on academic achievement, knowledge acquisition, and satisfaction are well-established [2]. However, the application of technologies to engage dental and medical students has been largely confined to clinical education and simulation laboratories, leaving didactic teaching in a traditional format [3,4].

“Student engagement” is a multi-dimensional concept [2]. Under the three-dimensional model of student engagement, these dimensions include behavioral, cognitive, and affective engagement [5]. The dual component framework posits that student engagement encompasses both learning and school engagement, with learning engagement further consisting of student interactions at the cognitive (thinking), affective (feeling), and behavioral (doing) levels [6]. Wang and Ji [1] categorize student engagement into reflective engagement, performance engagement, and interactive engagement. Interactive engagement is characterized by activities within the learning space that are coupled with immediate feedback.

Although a growing body of literature has focused on the use of technology to promote interaction in clinical and simulation-based teaching [3,4], scarce research is available regarding technological approaches to foster student engagement in didactic instruction. In an effort to promote student engagement, we developed self-paced interactive learning content covering an entire course using the HTML5 Package (H5P) [7]. We then undertook a study aiming to answer the following research questions (RQ):

  • RQ1: What is the impact of supplementary H5P content on students’ academic performance?

  • RQ2: What is the nature of student engagement with the H5P content?

  • RQ3: Is student engagement with the H5P material correlated with course grade?

  • RQ4: How do students perceive the benefits of the H5P content?

II. Methods

1. Development of H5P Content

The web-based H5P platform offers 54 content types, of which seven were selected for use in the OBIOL 203 (Oral Biology) - Survey of Biochemistry course. The chosen content types included drag and drop, drag the words, dialogue card, memory game, quiz, fill in the blanks, and crossword (Table 1). OBIOL 203 requires students to develop proficiency in recognizing biomolecules, chemical bonds, structures, and reactions. Accordingly, the drag-and-drop, dialogue card, and memory game types were used to create activities centered around images. For text-based learning, crossword, drag the words, and fill-in-the-blanks were employed (Figure 1, Table 1).

Distribution of interactive H5P content throughout the OBIOL 203 course

Figure 1

Representative examples of interactive content created for students using the H5P platform. (A, B) Drag and drop. (C, D) Drag the words. Students can drag text or images to the appropriate locations. They receive immediate feedback on their performance by clicking “Check” and can click “Retry” as many times as needed to improve their performance. (E, F) Dialogue cards. On these two-sided digital flashcards, side 1 contains an image, clue, or question. (G) Crossword puzzle. (H) Memory game.

With “drag and drop” items, students must place items in their proper positions within a provided table or image (Figure 1A, 1B). “Drag the words” requires students to move text into the appropriate spot in a sentence from a predetermined set of words or phrases (Figure 1C, 1D). “Dialogue cards” function as two-sided flashcards, with one side presenting an image, concept, or question and the reverse side revealing the answer (Figure 1E, 1F). The crossword activity resembles a traditional crossword puzzle, with clues pertaining to the study material (Figure 1G). In the H5P memory game, students must identify pairs of images; upon finding a match, the name of the image is displayed, which helps reinforce learning (Figure 1H). The quiz functionality features several question types, including multiple choice and true/false. Additionally, fill-in-the-blank questions were developed as supplementary interactive content (Table 1).

2. Implementation of H5P Content

OBIOL 203 is a 2.0-credit synchronous online didactic course offered to first-year dental hygiene students. We created 52 artifacts using H5P, which were then uploaded to the learning management system (LMS) (Table 1). Of these, 42 H5P artifacts were designed to reinforce the concepts presented in individual lectures. The remaining 10 artifacts integrated concepts from multiple lectures to deepen and broaden understanding (Table 1).

3. Study Design and Participants

The research employed a descriptive study design [8]. The participants were 28 students enrolled in OBIOL 203 during the winter 2024 term. The University of Alberta Research Ethics Board granted approval for this study (No. Pro00117742).

4. Data Collection and Analysis

OBIOL 203 included three non-cumulative exams. The course guide specified the lecture content covered in each exam. For each exam, the difficulty indices generated by the exam platform were collected and analyzed. The difficulty index represents the percentage of students who answered a question correctly, with a higher index thus indicating better class performance on that question [9]. Exam questions were categorized into two groups: (A) questions on concepts that were presented with supplementary H5P content and (B) questions on concepts that lacked such content. In the three exams, 58%, 51%, and 46% of questions, respectively, were based on concepts with supplementary H5P content available in the LMS. We compared the difficulty indices between the two sets of questions. Statistical analyses, specifically two-tailed t-tests with a significance threshold of p ≤ 0.05, were performed using Microsoft Excel (Microsoft Corp., Redmond, WA, USA). Student engagement data were analyzed for all 28 students, quantified as the number of interactions with the H5P content in the LMS. Using Microsoft Excel, we calculated the Pearson correlation coefficient to assess the relationship between student interactions with the H5P content and overall course grade [10]. An anonymous 14-item survey was made available on the LMS. The survey introduction provided a study description and an invitation to participate. Only those who consented to participate completed and submitted the questionnaire. Thus, consent was implied by overt action.

III. Results

1. Impact of H5P Content on Academic Performance

To address RQ1, we evaluated student performance on all three summative exams. Students performed significantly better on questions associated with topics for which interactive H5P content was provided (p = 0.0077, 0.0027, and 0.00038 for the three exams, respectively), compared to questions about concepts that lacked such content (Figure 2).

Figure 2

Impact of interactive H5P content on student academic performance. The relevant course (OBIOL 203 - Survey of Biochemistry) includes three non-cumulative assessments: (A) exam I, (B) exam II, and (C) exam III. Exam questions were categorized into two groups: (A) questions about concepts that were presented with supplementary H5P content and (B) questions regarding concepts that lacked such content. The difficulty indices of these two sets of questions were compared. Statistical analyses were conducted using two-tailed t-tests, with significance set at p ≤ 0.05, using Microsoft Excel.

2. Student Engagement with H5P Content

Regarding RQ2, 96% of the class engaged with the H5P activities. We plotted the total number of interactions with the H5P content over the course timeline, which showed that interactions peaked during and around exam weeks (Figure 3A).

Figure 3

(A) Student engagement with H5P content throughout the course timeline. We collected data on the frequency of interactions with this content from the learning management system (LMS) and plotted it over the course timeline for the 28 students. (B) Correlation between course grade and interactions with H5P content. Microsoft Excel was used for Pearson correlation analysis (r = 0.368). (C) Student engagement with the H5P content over time. Patterns of interaction with this content were analyzed for six students, specifically those who ranked in the top three and bottom three for overall course grade. Student-specific engagement data were collected from the LMS and plotted across the course timeline.

3. Correlation between Student Engagement with H5P Content and Course Grade

To address RQ3, we plotted student-specific engagement data against overall course grades. The analysis revealed a weak positive linear correlation (correlation coefficient r = 0.368) (Figure 3B).

4. Student Engagement with H5P Content over Time

For RQ3, we conducted a more detailed analysis of the interaction patterns with H5P content among the six students ranked in the top three and bottom three for overall course grades. Two of the three highest-scoring students engaged with the H5P content throughout the course. One student from the bottom three did not interact with this content at all. The remaining two students in the lower ranks engaged with the H5P content solely during exam weeks. One student with a top-ranking grade similarly engaged with the content exclusively during exam weeks (Figure 3C).

5. Student Perceptions of H5P Content

To address RQ4, a survey was conducted with a response rate of 61% from the class (n = 17). Among the respondents, 95% affirmed that the H5P content facilitated easier and more enjoyable learning and positively impacted the overall experience. Furthermore, 89% reported that the H5P content had aided in clarifying concepts. All respondents (100%) expressed a desire for H5P content to be included in other areas of their studies (Figure 4A).

Figure 4

(A) Percentage distribution of student survey responses. Students enrolled in the OBIOL 203 course during the winter 2024 term were invited to participate in a voluntary, anonymous survey. Of the class, 61% (n = 17) responded. (B) Student perceptions of the primary benefits of the H5P content. (C) Student perceptions of the most helpful types of H5P content. (D) Representative student comments from the open-ended survey questions.

When asked to identify the primary benefits of H5P content, both the ability to self-assess and the flexibility to access the content at any time were selected by 94% of respondents (Figure 4B). The “quiz” format emerged as the students’ preferred content type, followed by “drag and drop” and “drag the words” (Figure 4C). Responses to open-ended questions provided additional evidence of student satisfaction and offered suggestions for future improvements (Figure 4D).

IV. Discussion

Our study describes the development, implementation, and evaluation of interactive H5P content for a full 2.0-credit course within the dental hygiene program. Overall, students were satisfied with these interactive resources, the use of which was correlated with higher summative assessment scores. These results align with research demonstrating the impact of H5P in promoting self-directed learning and knowledge acquisition [11].

Previous research has indicated a strong positive correlation between student engagement and academic achievement [12]. In contrast, our results demonstrated only a weak positive correlation between student engagement with the H5P content and the overall course grade. For the three summative exams, which contributed equally to the course grade, H5P was used to reinforce certain concepts. Thus, engagement with H5P content alone did not guarantee a deep understanding or mastery of the course material. Additionally, the type and quality of engagement with the H5P content may have varied substantially among students, which could explain the weak correlation observed between student engagement with this content and overall course grade. Consistent with the findings of Hoffman et al. [13], our results demonstrated that top-performing students engaged with the H5P content throughout the course, not just before exams.

This study is limited by its focus on a single cohort and the absence of a control group, which may affect the generalizability of our findings. Additionally, we did not collect demographic data, and the sample size was small. Despite these limitations, our research demonstrates that H5P is an excellent platform for creating interactive content that encourages self-paced, interactive engagement among students. Future research should explore the effects of H5P across various learning domains, faculty perceptions, and the relationships between students’ academic performance and their interaction patterns with H5P content in terms of timing and frequency.

Notes

Conflict of Interest

No potential conflict of interest relevant to this article was reported.

Acknowledgments

We acknowledge the School of Dentistry Education Research Fund to support this work.

This work was supported by a School of Dentistry Education Research Fund grant (No. SDERF-2023-1).

References

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Article information Continued

Figure 1

Representative examples of interactive content created for students using the H5P platform. (A, B) Drag and drop. (C, D) Drag the words. Students can drag text or images to the appropriate locations. They receive immediate feedback on their performance by clicking “Check” and can click “Retry” as many times as needed to improve their performance. (E, F) Dialogue cards. On these two-sided digital flashcards, side 1 contains an image, clue, or question. (G) Crossword puzzle. (H) Memory game.

Figure 2

Impact of interactive H5P content on student academic performance. The relevant course (OBIOL 203 - Survey of Biochemistry) includes three non-cumulative assessments: (A) exam I, (B) exam II, and (C) exam III. Exam questions were categorized into two groups: (A) questions about concepts that were presented with supplementary H5P content and (B) questions regarding concepts that lacked such content. The difficulty indices of these two sets of questions were compared. Statistical analyses were conducted using two-tailed t-tests, with significance set at p ≤ 0.05, using Microsoft Excel.

Figure 3

(A) Student engagement with H5P content throughout the course timeline. We collected data on the frequency of interactions with this content from the learning management system (LMS) and plotted it over the course timeline for the 28 students. (B) Correlation between course grade and interactions with H5P content. Microsoft Excel was used for Pearson correlation analysis (r = 0.368). (C) Student engagement with the H5P content over time. Patterns of interaction with this content were analyzed for six students, specifically those who ranked in the top three and bottom three for overall course grade. Student-specific engagement data were collected from the LMS and plotted across the course timeline.

Figure 4

(A) Percentage distribution of student survey responses. Students enrolled in the OBIOL 203 course during the winter 2024 term were invited to participate in a voluntary, anonymous survey. Of the class, 61% (n = 17) responded. (B) Student perceptions of the primary benefits of the H5P content. (C) Student perceptions of the most helpful types of H5P content. (D) Representative student comments from the open-ended survey questions.

Table 1

Distribution of interactive H5P content throughout the OBIOL 203 course

Lecture title Learning outcomes H5P content to supplement the concepts of the lecture H5P content to wrap and reinforce the concepts of the week
Week 1 Lecture 1. Biochemical basis of life-I Identify the functional groups. Identify functional groups (Drag and drop) Identify biomolecules (memory game)
Identify organic compounds/biomolecules. Identify biomolecule (Drag and drop)
Differentiate between condensation and dehydration chemical reactions. Identify reaction (Drag and drop)
Describe the levels of organization of a living organism. Level of organization (Drag and drop)

Week 2 Lecture 2. Biochemical basis of life-II Describe the laws and terms of thermodynamics. Matching words: Enthalpy and entropy (Drag the words) Matching words: Systems (Drag the words)
Apply the equations that describe the laws of thermodynamics. Calculate energy (Dialogue card) Amino acid flashcards (Dialogue card)
Explain how Gibbs free energy determines whether a reaction is exergonic, endergonic, or in equilibrium. Matching words: Thermodynamics (Drag the words)
Lecture 3. Amino acids Know the properties of amino acids and their R group. Identify the properties of R groups (Drag and drop)
Find the charged amino acids (Drag and drop)

Week 3 Lecture 4. Protein structure-I Describe the primary and secondary structure of a protein. Matching words: Protein structure (Drag the words) Identify protein structures (Drag and drop)
Outline the characteristics of a peptide bond. Identify bonds (Drag and drop) Protein crossword (crossword)
Lecture 5. Protein structure-II Describe the tertiary and quaternary structures of a protein. - A protein Quiz (Question set/Quiz)
Protein flashcard (Dialogue card)
Describe how secondary structures form super-secondary motifs. -

Week 4 Lecture 6. Protein interaction Identify the forces that stabilize protein structures. Matching words: Protein interaction (Drag the words) -
Outline the effects of ligand binding on protein conformation.
List conditions that can denature and renature proteins.
Describe the different roles of polysaccharides.
Lecture 7. Carbohydrate Describe the properties of glycogen, amylose, amylopectin, cellulose, and chitin. Matching words: Carbohydrate (Drag the words)
Summarize the structural and functional properties of glycosaminoglycans, hyaluronic acid, and heparin.

Week 5 Lecture 8. Glycoproteins and proteoglycans Identify the structural and functional characteristics of glycoproteins, proteoglycans, and ionic polysaccharides. Carbohydrate flashcards (Dialogue card) -
Matching words: Glycoprotein (Drag the words)
Lecture 9. Lipids Recognize lipid structures. Identify fatty acids (Drag and Drop)
Differentiate between unsaturated, monosaturated, and polyunsaturated fatty acids.

Week 6 Exam I - - -
Lecture 10. Biological membranes Differentiate between the structure and functions of micelles, bilayers, liposomes, and the plasma membrane. Identify lipid aggregates (Drag and Drop) -
Identify the different components of a plasma membrane. Identify membrane proteins (Drag and Drop)

Week 7 Lecture 11. Membrane transport Classify different transporters. Membrane transport flashcard (Dialogue card) Fill in the blanks: DNA, RNA, Membrane transport (Fill in the blanks)
Outline the different mechanisms that can be used to transport solute across membranes.
Lecture 12. Nucleotides and nucleic acids Differentiate between the structure and function of DNA and RNA. Identify components of DNA and RNA (Drag and Drop) Quiz: Membrane, DNA, RNA (Question set/Quiz)
Describe the structure of nucleotides. Identify purines and pyrimidines (Drag and Drop)

Week 8 Reading break (No class) - - -

Week 9 Lecture 13. Enzymes and coenzymes I Differentiate between enzymes and coenzymes. Matching words: Enzymes (Drag the words) -
Define active site, substrate specificity, and transition state.
Describe the induced fit mechanism.
Lecture 14. Enzymes and coenzymes II Apply the Michaelis-Menton equation to a reaction. Enzyme and enzyme inhibition (Flashcard)
Plot the Michaelis-Mention equation as a Lineweaver-Burke plot.

Week 10 Lecture 15. Enzymes and coenzymes III Describe different mechanisms of enzyme inhibition. - Quiz: Enzyme and Energy (Question set/Quiz)
Lecture 16. Bioenergetics Differentiate between G (free energy), H (enthalpy), and S (entropy). Matching words: Bioenergetics (Drag the words)
Describe how ΔG describes the energy in a biological system. Calculation Flashcards (Dialogue card)
Define energy and explain its importance in biological systems. Matching words: Enthalpy and entropy (Drag the words)
Explain the concept of energy transfer and transformation.
Describe how redox reactions are involved in energy transfer.

Week 11 Lecture 17. Glycolysis Describe the overall process of glycolysis. Glycolysis flashcard (Dialogue card) -
Describe the role of enzymes in catalyzing the individual reactions of glycolysis.
Exam II - - -

Week 12 Lecture 18. Citric acid cycle Describe the overall process of the Citric Acid Cycle (TCA) Identify components of the TCA cycle (Drag and Drop) -
Describe connections between the TCA cycle and other metabolic pathways Identify location: TCA cycle (Drag and Drop)
Lecture 19. Electron transport chain Describe the different components of the electron transport chain, including the electron carriers and their roles in electron transport and proton pumping. Identify the complex of the electron transport chain (Drag and Drop)
Matching word: Function of complexes (Drag the word)
Describe the sequence of events that occur in the electron transport chain to result in the generation of ATP. Identify steps (Drag the words)

Week 13 Lecture 20. Fatty acid metabolism Explain how fatty acids enter into the TCA cycle. Identify components of cellular metabolism pathways (Drag and Drop) -
Describe the key enzymes and reactions involved in fatty acid metabolism.
Lecture 21. Amino acid metabolism-I Describe the metabolic fate of carbon skeletons derived from amino acid degradation. Amino acid metabolism pathway (Drag and Drop)
Flashcards: Glucogenic or Ketogenic

Week 14 Lecture 22. Amino acid metabolism-II Describe amino acid metabolism, including amino acid interconversion, degradation, and synthesis. Identify metabolic precursors (Drag and Drop) -
Lecture 23. DNA replication and repair Outline the roles of specific enzymes and proteins involved in DNA repair. Identify DNA replication enzymes (Drag and Drop)
Define the roles of the leading and lagging strands in DNA replication, including the synthesis and ligation of Okazaki fragments. Identify DNA strands (Drag and Drop)
Explain the different mechanisms and pathways involved in DNA repair. Matching words: DNA (Drag the words)

Week 15 Lecture 24. Transcription and translation Describe how transcription and translation are initiated and terminated. Identify template and non-template strands (Drag and Drop) -
Explain the significance of the promoter region.
Lecture 25. Control of transcription and translation Describe the role of enhancers, silencers, activators, and repressors in modulating gene expression. Matching word: DNA, RNA (Drag the words)
Explain the connection between transcription, translation, and gene expression regulation. Matching words: Regulation (Drag the words)

Week 16 No lecture - - -

Week 17 Exam III - - -