Sustainable Higher Education Development through Technology Enhanced Learning
Abstract
:1. Introduction
- Content development for a competency-based education, incorporating best practices from the most advanced universities, their key academics, and establishing a Professional Learning Community (PLC).
- Developing this PLC community through the use of pilot academic programs, and experiencing student development and motivation within Azerbaijan’s top universities. This will develop a new innovative education system tested on reference development academic programs for the country.
- Qualification of the public policy administration based on state–business partnerships for following stakeholders’ guidelines and need.
- Creating a new mechanism for sustainable higher education development to meet ethics and regulations.
- Creation of modern education infrastructure that ensures TEL development.
2. Background Literature Review
3. Materials and Methods
3.1. Reference Information and Methodology Design
- How can we implement online collaborative research for excellent results using TEL tools? Technical design of the pilot includes: pedagogical approach, academic and electronic contents structure (pedagogical innovations), a common learning platform, and a deployment plan (academic requirements) for launching a pilot test for future online degrees.
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- Contents were prepared by the PLC. All PLC supervisors participated on the development of all courses co-designing contents, with EU partners’ support, and incorporating the lean principles developed by Ely [12] on the new programs.
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- The selected learning platform was Moodle for its widespread use, open-source nature and flexibility. After the course’s design, test runs were implemented in eight Teaching and Learning Centers (TLCs) funded through the Erasmus+ program.
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- The TLC plan scheduled the courses following the requirements of the pilot. During the test-run deliveries, the PLC team performed a recurrent PDCA (Plan–Do–Check–Act) cycle, providing a framework for continuous feedback and analysis developed later.
- Did the pilot introduce an efficient innovation? For performance assessment, the DeLone and McLean model [13] was selected for building the PETRA pilot and designing data gathering for assessment. The TEL system model includes all stages on the teaching/learning process. This model [12] is applied to the PETRA pilot in Figure 1. Three independent variables under the “quality” heading are identified: content incorporating the standards required for user efficient performance; TEL (TLC) system accessibility assessment (from the technology perspective); standardization of its structure for portability and stability; and last by not least, the implementation developed on each TLC for the pilot evaluated the structure design and correct pedagogical approach.
3.2. Methods and Proposed Research
- Efficacy of knowledge acquisition: According to Alexander et al. [15] best results are obtained by paying special attention to the synthesis performed by students. Therefore, a program design should be focused on the development of systems and emphatic thinking.
- Effective course design: Metacognition progress is the key element to consider when designing an effective use of TEL tools [16].
- Efficient use of resources: The literature analysis review performed by Sun et al. [17] concludes that the combination of content delivery with group project development provides the most significant results.
- Needs analysis: Following the digital education action plan adopted by the EU Commission [18] the current situation of TEL in Azerbaijan was assessed. The most relevant finding was the need for a skilled academic staff task force through blended learning, and the selection of the most urgent topics:
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- Innovative pedagogies and curriculum design.
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- Cooperation on high-quality development of research skills.
- Course design: The course model template was taken from the Erasmus+ KA2 project Essence, [19] which was selected for academic staff training due to its successful implementation in Vietnam. The design included five days’ full-time work (one per week) for avoiding conflicts with the baseline activities from all participants. Nobody traveled (except for the final presentations and evaluation), and used TEL as the unique support vehicle both in teaching and learning. Regarding capacity-building, key points for the lectures on each course were identified from the needs analysis. Interaction and applicability were guaranteed thanks to the debate methodology. The structure is presented in Figure 2.
- Usability assessment: Fulfillment of requirements from ISO 9241.
- Implementation analysis and participant assessment: These dimensions were assessed jointly by workshop participants (Azerbaijan faculty) and facilitators (EU faculty). The protocol offered by Lönngren et al. [20] was used as described on the application to transdisciplinary group work by Orozco et al. [21
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- Systems thinking: reading, reflecting, and problematization.
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- Empathic thinking: free solutions and role play.
- Learning outcomes.
- Sustainability.
3.3. Research Procedure
4. Results
- Interdisciplinarity assessment for the PETRA pilot:
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- Main progress identified was being able to recognize and articulate TEL as a tool to develop courses collaboratively.
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- Different academic backgrounds, as well as the EU flavor, allowed a higher insight into TEL topics through the confrontation of different perspectives, and avoiding curricular confrontations. Identification of knowledge acquisition encouraged all to be open to differences and open points of view.
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- Absence of a shared disciplinary language allowed better problem definitions because different perspectives facilitated simpler approaches and concentrating on finding alternative solutions.
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- Due to the transversal course topics, "integration" of disciplines was easier. Participants produced deliverables that would not have been possible independently. Interdisciplinarity was the most important result for all courses.
- Metacognition
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- Participants delivered contributions to the project despite being outside their own disciplinary backgrounds. Reflection on this fact promoted a higher satisfaction due to the higher efficiency obtained through group work with TEL as a tool.
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- Different participants developed individual self-awareness on complementary issues, which was the key for team synergy. Participants were able to confront their attitudes through self-awareness that promoted knowledge acquisition.
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- Participants used their individual self-reflections on the debates as a team tool for addressing more creative project solutions. Many participants confessed that the TEL- driven group had a constructive effect for them. Nearly all recognized the synergies of working with people with different ways of thinking through TEL.
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- Different planning schemes, tools, and strategies were selected by the groups, producing in all cases the right blend for success. Individual experiences can be developed into larger scales, for identifying different optimal results.
- Systems thinking:
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- All teams were keen to assess transferable knowledge at group level (through experience and institutional constraints awareness).
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- Participants were aware of the impacts of the projects at different physical, time, and social scales.
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- The main concern for all participants was the importance of institutional and country systems issues, as well as their realization of the importance of networking for capacity building.
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- Participants identified and worked out solutions not only for financial and physical constraints, but also for transversal knowledge domains to be considered neutrally for developing TEL solutions.
- Empathy:
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- All participants showed a high level of coherency, probably due to the short course span, common orientation, and missing conflicts, which allowed good strategies for handling disagreement. The lack of a competitive result also prevented important confrontations.
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- All participants excelled in active listening during group work. Upon reflection, TEL promoted this attitude, which was also key for gathering very effective results from the group work.
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- Synergy was enhanced by the transcendence assumed by participants about the team results. All participants worked proactively for incorporating all different points of view into the debate.
5. Discussion
- How can we implement an online collaborative research for excellent results using TEL tools?
- Did the pilot introduce an efficient innovation?
6. Conclusions
- State standards for 15 pilot programs have been improved and redeveloped to include competence-based and student-centered focuses.
- Quality assurance systems have been developed to reflect the student centeredness of study programs.
- Recommendations on amendments of legislative and regulative framework were also developed.
Author Contributions
Funding
Conflicts of Interest
References
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Type of Institution | Students (Number) | Foreign Students (Number) | Permanent Faculty (Number) | Temporary Faculty (Number) |
---|---|---|---|---|
Public | 164,516 | 5897 | 12,494 | 1279 |
Private | 18,569 | 540 | 2039 | 437 |
Total | 183,085 | 6437 | 14,533 | 1927 |
Institution/Academic Level | Master’s Students | Faculty | Total | |
---|---|---|---|---|
PhD | Sc.D | |||
Khazar University | 8 | 6 | 2 | 16 |
Ganja State University | 6 | 7 | 2 | 15 |
Nakchivan State University | 5 | 6 | 1 | 12 |
Sumgait State University | 5 | 5 | 1 | 11 |
Baku Slavic University | 6 | 4 | 2 | 12 |
Azerbaijan University of Languages | 4 | 4 | 2 | 10 |
Azerbaijan State Pedagogical University | 5 | 5 | 3 | 13 |
Azerbaijan University | 7 | 5 | 2 | 14 |
Total | 46 | 42 | 15 | 103 |
TLC | Systems Thinking | Empathic Thinking | Learning Outcomes | TLC Average | ||
---|---|---|---|---|---|---|
Read/Refl. | Problem | Free | Role | |||
Khazar University | 4’28 ± 0’24 | 4’48 ± 0’27 | 4’40 ± 0’26 | 4’44 ± 0’26 | 4’08 ± 0’21 | 4’34 ± 0’16 |
Ganja St. University | 4’03 ± 0’24 | 4’33 ± 0’26 | 4’11 ± 0’21 | 4’16±0’23 | 4’13 ± 0’22 | 4’15 ± 0’11 |
Nakchivan St. University | 4’16 ± 0’23 | 4’41 ± 0’26 | 3’68 ± 0’16 | 3’68±0’16 | 3’96 ± 0’19 | 3’98 ± 0’31 |
Sumgait St. University | 4’34 ± 0’24 | 4’22 ± 0’23 | 4’88 ± 0’28 | 4’28±0’24 | 3’82 ± 0’18 | 4’31 ± 0’38 |
Baku Slavic University | 4’14 ± 0’25 | 4’42 ± 0’28 | 4’41 ± 0’26 | 4’23±0’21 | 3’96 ± 0’20 | 4’23 ± 0’19 |
Azerbaijan U. of Languages | 4’24 ± 0’23 | 4’32 ± 0’25 | 3’98 ± 0’20 | 3’57±0’14 | 3’85 ± 0’18 | 3’99 ± 0’30 |
Azerbaijan St. Pedag. U. | 4’50 ± 0’27 | 4’41 ± 0’27 | 4’20 ± 0’22 | 3’89±0’19 | 3’56 ± 0’17 | 4’11 ± 0’39 |
Azerbaijan University | 4’44 ± 0’26 | 4’32 ± 0’25 | 4’11 ± 0’21 | 4’40±0’25 | 4’03 ± 0’21 | 4’26 ± 0’18 |
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Orozco-Messana, J.; Martínez-Rubio, J.M.; Gonzálvez-Pons, A.M. Sustainable Higher Education Development through Technology Enhanced Learning. Sustainability 2020, 12, 3600. https://doi.org/10.3390/su12093600
Orozco-Messana J, Martínez-Rubio JM, Gonzálvez-Pons AM. Sustainable Higher Education Development through Technology Enhanced Learning. Sustainability. 2020; 12(9):3600. https://doi.org/10.3390/su12093600
Chicago/Turabian StyleOrozco-Messana, Javier, Juan Miguel Martínez-Rubio, and Ana Maria Gonzálvez-Pons. 2020. "Sustainable Higher Education Development through Technology Enhanced Learning" Sustainability 12, no. 9: 3600. https://doi.org/10.3390/su12093600
APA StyleOrozco-Messana, J., Martínez-Rubio, J. M., & Gonzálvez-Pons, A. M. (2020). Sustainable Higher Education Development through Technology Enhanced Learning. Sustainability, 12(9), 3600. https://doi.org/10.3390/su12093600