Volume 18, Issue 1 (2025)                   JMED 2025, 18(1): 132-139 | Back to browse issues page

Ethics code: IR.UMSHA.REC.1402.037


XML Print


Download citation:
BibTeX | RIS | EndNote | Medlars | ProCite | Reference Manager | RefWorks
Send citation to:

Shavandi F, Emad Momtaz H, Moradi N, Cheraghi Z, Seidi M. The frequency and acceptance of educational technology as a learning tool among faculty members. JMED 2025; 18 (1) :132-139
URL: http://edujournal.zums.ac.ir/article-1-2161-en.html
1- Student Research Committee, Hamadan University of Medical Sciences, School of Medicine, Hamadan, Iran.
2- Department of Pediatrics, Hamadan University of Medical Sciences, Hamadan, Iran.
3- Department of Nutritional Science, Student Research Committee, Hamadan University of Medical Sciences, School of Medicine, Hamadan, Iran.
4- Modeling of Noncommunicable Diseases Research Center, Department of Epidemiology, School of Public Health, Hamadan University of Medical Sciences, Hamadan, Iran.
5- Assistant Professor, Ph.D. medical education, Education Development Center(EDC), Hamadan University of Medical Sciences, Hamadan, Iran. , seidimasoomeh@gmail.com
Full-Text [PDF 742 kb]   (121 Downloads)     |   Abstract (HTML)  (336 Views)
Full-Text:   (57 Views)
Abstract
Background & Objective: Educational technologies improve instruction and make learning easier. They have several advantages, such as encouraging active learning, raising motivation, and improving the standard of instruction. This study aimed to determine how frequently and how well faculty members at Hamadan University of Medical Sciences used educational technology as a teaching tool. Additionally, it aimed to identify the difficulties related to online learning and collect their opinions on educational technology.
Materials & Methods: A cross-sectional study, was conducted between early February and early May 2023. The target population consisted of all Hamadan University of Medical Sciences faculty members, of which 139 or so were chosen by stratified random sampling from each particular school. The research instrument was a questionnaire divided into sections covering:  1) socio-demographics and occupation, 2) experience with new educational technologies, 3) a list of these technologies, and 4) questions derived from the validated Technology Acceptance Model (TAM).  We utilized a multiple linear regression model to analyze the relationship between demographic variables and outcomes. We also used the chi-square test to compare proportional differences at a 95% confidence level.
Results: According to the analysis, 86.33% of faculty members have integrated new educational technologies into their instruction. Wearable technology was used the least for instruction (1.44%), while mobile apps were the most common (53.96%). The majority of new educational technologies (47.48%) were used for theoretical instruction.
Conclusion: Given the advantages of educational technologies, investigating how they are currently being used and creating a systematic plan for their successful implementation can benefit faculty, students, and academic institutions. This method should supplement conventional lectures.


Introduction
Many universities and educational institutions had to suddenly switch from traditional classrooms to distance learning during the covid-19 pandemic due to the need for social distancing [1, 2]. Improvements were urgently needed as a result of this change, which required the use of educational technology to continue instruction while following social and physical distancing regulations [3]. Even after the pandemic, many institutions now provide online courses in addition to in-person lectures due to recent developments in educational technology [4].
The use of a wide variety of digital resources to improve the teaching process and encourage effective learning is known as educational technology [5]. Educational technology can significantly enhance the learning process by delivering educational materials on platforms that can be accessed globally [6]. Delivering education through these technologies helps transform the teaching process toward a more student-centered approach, encouraging more direct interaction with the instructor and engagement, as well as deep and critical thinking [7].
The Technology Acceptance Model (TAM) explains the factors influencing an individual's decision to adopt or reject a particular technology for task completion [8]. According to TAM, two primary factors affect adoption: perceived usefulness and ease of use. Perceived usefulness is the extent to which an individual believes utilizing a specific technology will enhance job performance [9]. How to involve faculty members who are content with new technologies in the educational sector is a relevant question in the technological age we live in today. Since it highlights the many advantages of educational technologies for learning and teaching skill enhancement, answering this question benefits students and academic institutions. Staff members' acceptance of educational technologies will likely improve if they perceive them as beneficial and advantageous, positively influencing their attitudes and intentions to use them more frequently.
Challenges such as inadequate facilities and equipment, capacity-building deficiencies, the need for extended preparation time, and technical difficulties have hindered the use of educational technologies [6, 10]. This study investigates the prevalence and acceptance of educational technology as a learning tool among faculty members, considering that the advantages of implementing it go beyond pandemic applications for both teaching institutions and students. It also investigates how they view educational technology to pinpoint the difficulties associated with online learning.


Materials & Methods
Design and setting(s)
A cross-sectional study assessed the frequency and acceptance of new educational technologies among faculty members at Hamadan University of Medical Sciences from early February to early May 2023. To align with the study's primary objective, a similar 2015 study by Zalat et al. was referenced to determine the sample size. The sample size was calculated with an error level of 0.05 and a power of 90%. The total sample size comprised 139 faculty members who participated in the study.
Participants and sampling
The study population included faculty members from the Hamadan University of Medical Sciences (departments of Medicine, Dentistry, Pharmacy, Health, Nursing and Midwifery, Rehabilitation, Paramedicine, New Technologies, and Research) who had been recruited to teach before the covid-19 pandemic and had experience teaching online courses. Inclusion criteria were consent to participate in the study and expertise using educational technologies.
Tools/Instruments
The questionnaire comprised four sections. The first section included questions on socio-demographic and occupational information, such as gender, age, duration of teaching experience, type of school, academic rank, and employment status. The second section investigated experiences with new educational technologies and listed various technologies including Mobile Apps, Simulators, Gamification, Artificial Intelligence, Motion Graphics, Virtual/Augmented Reality, Microlearning, Podcasts, Big Data, Internet of Things, Wearable Technologies, and Massive Open Online Courses (MOOCs). Social media was excluded due to its regular use by faculty members. Respondents answered three yes/no questions regarding their experience with each technology, whether they had developed teaching materials, and whether they had attended workshops on these technologies. The third section scored questions using a binary checklist (yes/no).
The fourth section of the survey contained questions based on the validated TAM (8–10) to evaluate the faculty members'  perceptions of the educational technologies' usefulness, ease of use, and acceptance on a five-point scale range of "strongly disagree" to "strongly agree." TAM is instrumental in understanding the factors influencing the target group's potential acceptance or rejection of technology [11]. Permission for this section's content was obtained from the corresponding author of the article "The Experiences, challenges, and Acceptance of e-learning as a Tool for Teaching during the covid-19 Pandemic among university medical staff" [6]. The questionnaire's validity was ensured by soliciting feedback from 10 experts on the questions' necessity, redundancy, and clarity, leading to necessary modifications. The questionnaire's reliability was confirmed with a Cronbach's alpha value greater than 0.7 [12]. The questionnaire had good reliability, with Cronbach's alpha of 0.78.

Data collection methods
Data collection was conducted via a questionnaire with four sections: [1] socio-demographic and occupational information, [2] experience with new educational technologies, [3] a yes/no checklist of new educational technologies, and [4] the validated Technology Acceptance Model (TAM) assessing perceptions of usefulness, ease of use, and acceptance.The questionnaire was distributed in print to faculty offices and electronically via department heads.
Data analysis
Data were analyzed using descriptive and analytical statistical tests with STATA 17 software. Descriptive statistics (frequency and percentage) described the variables. A p-value of ≤ 0.05 was deemed statistically significant. We utilized a multiple linear regression model to analyze the relationship between demographic variables and outcomes. Additionally, we applied the chi-square test to compare differences in proportions, all at a 95% confidence level.  


Results
One hundred thirty-nine employees of Hamadan University of Medical Sciences provided the data. Most participants had 1–10 years of teaching experience (71.22%), were assistant professors (58.99%), and were primarily from the medical department (51.08%). 38.13% of the staff participating in this study were officially employed (Table 1).

Table 1. Characteristics of participants

Note: Percentages are based on the total number of participants who responded to each question. Some participants did not answer certain questions in the questionnaire, and these responses were excluded from the calculations.
Abbreviations: n, number of participants; %, percentage.

The second section of the questionnaire found that 120 staff members had used the new educational technologies for teaching (86.33%), and the majority of them had used the technologies for more than 2 years (43.88%). Before the covid-19 pandemic, 91 participants (65.47%) had already been using new educational technologies, although only 21.58% reported having access to fast internet speeds. These technologies were primarily employed for theoretical lessons (47.48%) (Table 2).

Table 2. Experience regarding the new educational technologies

Abbreviations: n, number of participants; %, percentage.

In the third section of the survey, mobile apps were the most frequently used technologies for teaching (53.96%), and wearable technologies were the least used (1.44%).  Mobile apps were the preferred choice for creating educational products using new technologies (10.79%), whereas simulators, gamification, and wearable technology were seldom selected (1.44% each). Concerning participation in workshops to learn about new educational technologies, mobile apps again led the way (31.65%), with wearable technology remaining the least engaged (1.44%) (Table 3).

Table 3. Prevalence of using the new educational technologies
Abbreviations: n, number of participants; %, percentage; MOOCs, massive open online courses.

The fourth section's findings indicate that the perceived usefulness, ease of use, and acceptance of new educational technologies as teaching tools are promising. 43.17% of participants expressed their intention to use these technologies in the future, with a maximum of only 2.88% strongly disagreeing with two subsections (Table 4).
 
Table 4. Acceptance of the new educational technologies as learning tools
Note: Percentages are based on the total number of participants who responded to each question. Missing responses were excluded from the calculations. The items in this section were adapted from the Technology Acceptance Model (TAM) and used with permission.
Abbreviations: n, number of participants; %, percentage.


Table 5 presents a frequency distribution of demographic variables related to the use of new educational technology, accompanied by p-values indicating the statistical significance of differences among categories. It shows that the majority of respondents are assistant professors (58.47%), with a smaller percentage as associate professors (20.60%) and professors (13.6%). The p-value of 0.787 indicates that these academic ranks' use of technology does not differ significantly. A p-value of 0.688, which also shows no significant correlation between teaching experience and technology use, reflects that all respondents have more than 30 years of teaching experience. In terms of departmental representation, the health department has the most respondents (51.8%), followed by paramedicine (37.0%) and rehabilitation (25.9%).
 
Table 5. The frequency of using new educational technology according to demographic variables

Abbreviations: n, number of participants; %, percentage; p-value, probability-value.


The medical, pharmacology, dental, and nursing departments had no respondents. A significant difference in technology usage by department is indicated by the p-value of 0.045, which suggests that departmental affiliation influences technology adoption. Last but not least, the majority of respondents (40.52%) have a formal job, followed by those with employment contracts (31.90%) and service commitments (21.55%). A p-value of 0.915 suggests no appreciable differences in technology use according to employment status.
With a particular focus on perceived usefulness, perceived ease of use, and acceptance, the analysis in Table 6 looks at how different factors affect the dimensions of new educational technologies. With coefficients of -0.03 for perceived usefulness and -0.08 for perceived ease of use, both of which produce non-significant p-values (0.787 and 0.521, respectively), the results show that age has little bearing. The effects of academic rank are also insignificant; full professors, associate professors, and assistant professors all have coefficients between -3.35 and -2.90, falling short of significance. Perceived usefulness and teaching experience are more positively correlated (2.04, p = 0.087), suggesting possible relevance. Dental and medical professionals had a more favorable opinion of ease of use (3.87, p = 0.130) than other departments, which consistently produced coefficients near zero with non-significant p-values. Similar limitations apply to the effects of employment status; contractual employment showed some positive coefficients but was not significant across all variables. Overall, there are few strong correlations between the factors under investigation and the aspects of new educational technologies.
 
Table 6. The role of some factors on new educational technologies dimensions
Abbreviations: p-value, probability-value; CI, confidence interval.

Discussion
It was thought to be beneficial to look into the acceptance and perceptions of educational technologies because of the many advantages made especially clear during the pandemic and the subsequent need to use these technologies to avoid disrupting education. This study aims to optimize their benefits and improve their application with conventional teaching techniques. According to the findings, 120 faculty members (86.33%) had used new educational technologies for their students' education, among these technologies. During social distancing, the covid-19 pandemic forced people worldwide to rely more on online learning and educational technologies [1, 13].
Amare et al.'s study showed that nearly three-fourths (72.6%) of faculty members hold positive beliefs and highly accept educational technology. Furthermore, the likelihood of accepting and utilizing technologies for learning was 2.3 times higher for faculty members working in teaching settings at research institutions [14].
In this study, mobile apps were the most frequently used educational technologies. The results of Voicu et al.‘s study showed that perceived usefulness, habit, perceived skill, and self-efficacy directly influence the Continuance Intention (CU) to use smartphones in higher education. Further, performance expectancy, intrinsic motivation, perceived ease of use, and perceived enjoyment indirectly influence the CU to use [15]. Participants' responses regarding the future use of new educational technologies were positive, with 55% strongly agreeing and 60% agreeing. A good teacher facilitates learners' learning process by applying new educational technologies and has a toolbox of these technologies to use according to the subject and learning situation. According to the results, there is promise in the perceived value, usability, and acceptance of new educational technologies as teaching aids. Incorporating elements of education and virtual reality (VR) technology in training settings, an expanded TAM was created. The relationships between factors relevant to VR technology and learning were supported, and the original TAM factors showed the most vital relationships [16]. Gabriel et al's study demonstrated considerable differences in how digital technologies are incorporated into post-secondary education. At the university (where we conducted our research), there is no policy governing the use of digital tools in the classroom, and each professor approaches their instruction according to their preferences and viewpoints [17]. Promotion, financial rewards, and reducing workload and time are all significant motivators for staff members to embrace and use new technology [10]. Training facilitates employee adoption by giving them the information and abilities they need to use new technology effectively and efficiently. Employee adoption of new technology is fueled by managerial support, which includes giving them financial and technical support and the time they need to become familiar with it [18].
According to the study's findings, there are notable differences in technology used by the department, with the Health department having the most respondents, but no discernible differences in usage across academic ranks, teaching experience, or employment status. Furthermore, the perceived utility, usability, and acceptance of new educational technologies are not significantly impacted by age, academic standing, or employment status; however, teaching experience and departmental affiliation are marginally more relevant but still not very significant.
Faculty members can overcome the time and space constraints of traditional teaching methods by utilizing contemporary educational technologies. The speed at which technology is developing in education is astounding. The cross-sectional nature of this study and its focus on faculty members from a single university represent limitations, given the limited facilities and suboptimal internet speeds that impact the adoption of new educational technologies. Furthermore, a significant obstacle that led to a limited study population was the faculty members' unwillingness to answer the questionnaire. Creating an electronic version of the survey was advantageous because it made it easier for university employees to access and respond whenever it was most convenient for them.


Conclusion
The current study results indicated that faculty members had employed new educational technologies for learning (86.33%). Among these technologies, mobile apps were the most frequently used for online teaching, whereas wearable technologies were the least utilized. These findings suggest that the perceived usefulness, ease of use, and acceptance of new educational technologies as teaching tools are promising. Future research should build upon these findings by exploring additional areas and facets of the subject, enlarging the sample size, and, crucially, concentrating on the existing educational technology's role in collaborative learning and engagement. Subsequent studies also employ qualitative methods, such as interviews, group discussions, focus groups, and observations, to better understand the situation and faculty members' attitudes.


Ethical considerations
Approval from the institutional ethical committee was secured (Ethical code: IR.UMSHA.REC.1402.037), and the Declaration of Helsinki conducted the study. Written informed consent was obtained from all participants. 
Artificial intelligence utilization for article writing
The authors declare that AI-based tools have not been used in the research and preparation of this manuscript.
Acknowledgment
This study, research project number 140203232209, received approval from Hamadan University of Medical Sciences. The researchers extend their heartfelt gratitude to the esteemed Vice-Chancellor of Research and Technology of the University, the Medical Education Development Center, and the Hamadan University of Medical Sciences faculty members for their cooperation.
Conflict of interest statement
The authors stated no potential conflicts of interest.
Author contributions
Seidi, H E Momtaz, and F Shavandi contributed to the conception and design of the study. F Shavandi and M Seidi contributed to the development of the questionnaire. F Shavandi, N Moradi, and M Seidi contributed to data collection. Z Cheraghi, M Seidi, and F Shavandi contributed to the analysis and interpretation of the results. F Shavandi and M  Seidi contributed to manuscript preparation and writing. All authors approve of the final manuscript.
Supporting resources
This work was supported by Hamadan University of Medical Sciences (grant number: 14023232209).
Data availability statement
The questionnaire can be obtained by contacting the corresponding author.


 
Article Type : Orginal Research | Subject: Medical Education
Received: 2024/04/16 | Accepted: 2025/02/6 | Published: 2025/04/14

References
1. Selvaraj A, Radhin V, Nithin K, Benson N, Mathew AJ. Effect of pandemic based online education on teaching and learning system. International Journal of Educational Development. 2021;85:102444. [DOI]
2. Almahasees Z, Mohsen K, Amin MO. Faculty’s and students’ perceptions of online learning during covid-19. InFrontiers in Education 2021 May 12 (Vol. 6, p. 638470). Frontiers Media SA. [DOI]
3. Almajali D, Al-Okaily M, Barakat S, Al-Zegaier H, Dahalin ZM. Students’ perceptions of the sustainability of distance learning systems in the post-covid-19: a qualitative perspective. Sustainability. 2022;14(12):7353. [DOI]
4. Bahasoan AN, Ayuandiani W, Mukhram M, Rahmat A. Effectiveness of online learning in pandemic covid-19. International Journal of Science, Technology & Management. 2020;1(2):100-6. [DOI]
5. Alea LA, Fabrea MF, Roldan RDA, Farooqi AZ. Teachers' covid-19 awareness, distance learning education experiences and perceptions towards institutional readiness and challenges. International Journal of Learning, Teaching and Educational Research. 2020;19(6):127-44. [DOI]
6. Zalat MM, Hamed MS, Bolbol SA. The experiences, challenges, and acceptance of e-learning as a tool for teaching during the covid-19 pandemic among university medical staff. PloS One. 2021;16(3):e0248758. [DOI]
7. Soubra L, Al-Ghouti MA, Abu-Dieyeh M, Crovella S, Abou-Saleh H. Impacts on student learning and skills and implementation challenges of two student-centered learning methods applied in online education. Sustainability. 2022;14(15):9625. [DOI]
8. Mugo DG, Njagi K, Chemwei B, Motanya JO. The technology acceptance model (TAM) and its application to the utilization of mobile learning technologies. Journal of Advances in Mathematics and Computer Science.2017;20(4): 1-8 [DOI]
9. Al-Gahtani S. The applicability of TAM outside North America: an empirical test in the United Kingdom. Information Resources Management Journal. 2001;14(3):37-46. [DOI]
10. Bond M, Buntins K, Bedenlier S, Zawacki-Richter O, Kerres M. Mapping research in student engagement and educational technology in higher education: A systematic evidence map. International Journal of Educational Technology in Tigher Education. 2020;17:1-30 [DOI]
11. Seidi M, Ramezani-Aliakbari F, Doosti-Irani A. Effectiveness of the flipped classroom method using clinical scenarios and Educational Technology versus Subject-Based Lectures in a gastrointestinal physiology course for medical students. BMC Medical Education. 2024 Aug 9;24(1):858. [DOI]
12. Huang R. Educational technology a primer for the 21st century: Springer; 2019. [DOI]
13. Li S, Zhang C, Liu Q, Tong K. E-Learning during covid-19: perspectives and experiences of the faculty and students. BMC Medical Education. 2022;22(1):328 [DOI]
14. Amare EM, Zegeye RT, Wondie SG, Negash TT, Siyoum MT. Getting ready for digital shift: the level of acceptance towards educational technology among faculty members in higher education institutions in Ethiopia. Discover Education. 2024;3(1):10. [DOI]
15. Voicu MC, Muntean M. Factors that influence mobile learning among university students in Romania. Electronics. 2023;12(4):938. [DOI]
16. Fussell SG, Truong D. Using virtual reality for dynamic learning: an extended technology acceptance model. Virtual Reality. 2022;26(1):249-67. [DOI]
17. Gabriel M, Campbell B, Wiebe S, MacDonald R, McAuley A. The role of digital technologies in learning: Expectations of first year university students. Canadian Journal of Learning and Technology. 2012;38(1). [DOI]
18. Granić A, Marangunić N. Technology acceptance model in educational context: a systematic literature review. British Journal of Educational Technology. 2019;50(5):2572-93 [DOI]

Add your comments about this article : Your username or Email:
CAPTCHA

Send email to the article author


Rights and permissions
Creative Commons License This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.