Nor Anisa Arifin
Material Engineering and Testing Group, Generation & Environment Dept, TNB Research Sdn Bhd

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Online Learning and Open Education: Transforming Beyond Digitalization Abdullah A Afifi; Nor Anisa Arifin; Mona Eliza; Evan Azami; Gustian Salm
Journal of Regional Development and Technology Initiatives Vol. 2 No. 2 (2024)
Publisher : IDRIS Darulfunun Institute

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.58764/j.jrdti.2024.2.74

Abstract

The global shift toward digital transformation has significantly accelerated the adoption of online learning and open education models. However, in an increasingly complex and fast-changing world (VUCA), digitalization alone is no longer sufficient as an objective. This article aims to explore how online learning and open education can evolve beyond digitalization by aligning with broader global challenges, trends, and emerging societal needs. Using a conceptual and literature-based approach, the paper examines how open education contributes to contemporary issues such as technological advancement, sustainability, regional development, inclusiveness, and public participation. In this context, open education is not merely defined by free access to digital platforms but rather as a paradigm shift toward collaboration, open knowledge, and democratized learning. Education is increasingly understood as a participatory and sustainable ecosystem, rather than a one-directional process. This study emphasizes that building an inclusive, adaptive, and future-relevant education system requires the integration of policy innovation, technological advancement, and values of openness. The article provides practical policy insights, implications, and strategic recommendations for transitioning from simple digital educational access to a development and transformation strategy, particularly in developing countries where educational inequality and sustainability gaps remain key concerns.
Influence of Metal Dopant (Cu, Co, Sm, Sn) on Ni/ScSZ Thin Film Anode in Solid Oxide Fuel Cell Nor Anisa Arifin; Abdullah A Afifi; Navina Kumar; Nur Natasha Roslan; Andanastuti Muchtar
Journal of Regional Development and Technology Initiatives Vol. 2 No. 2 (2024)
Publisher : IDRIS Darulfunun Institute

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.58764/j.jrdti.2024.2.81

Abstract

Solid oxide fuel cells (SOFCs) are highly efficient electrochemical conversion devices that generates electrical energy through electrochemical reaction of gaseous fuel. Doping on the SOFC anode catalyst has the potential to increase the performance and tolerance of SOFC towards hydrocarbon fuel. An understanding of the doping effect of different type of catalyst on the SOFC anode is essential due to the differences in the characteristics of the catalysts and the impact on the existing anode catalyst microstructure with the dopant addition. This study is aimed to identify the effect of metal catalysts doping on the microstructure and electrochemical performance of Ni/ScSZ thin composite anodes on the SOFC electrolyte supported cell with surface infiltration method. The impact on the anode catalyst’s microstructure, distribution of element and elemental analysis was carried out using SEM-EDX and XRD analysis. The electrochemical performance of the cells were evaluated by the maximum power density and open-circuit-voltage (OCV) from the current-voltage (iV) measurement in hydrogen and in biogas. The results of this study found that the presence of dopant introduction of 5wt% dopant/Ni can be detected by EDX, but not with lower concentration. For Sn, Sm and Cu doped cells, the XRD analysis detected Ni3Sn, Ni2Sm and Cu0.81Ni0.19 alloy formed, respectively. Doping by 0.5 wt% of Sn/Ni and 5wt% of Sm/Ni improved the electrochemical performance in hydrogen by three-fold and two-fold (184mW/cm2 and 100mW/cm2, respectively) compared to 49 mW/cm2 in the undoped cell. Addition of Cu showed the best tolerance with biogas operation. Co addition on the other hand posed a negative impact and the microstructure of the anode become overly dense. This work observed different impact dopant by various dopant on the cell’s porosity which influenced the electrochemical reaction. As the result with biogas deviates from previous investigation with anode supported cell, it can be concluded that for electrolyte supported cell with thin anode which have limited catalytic area as the reforming reaction reaction compete with the triple phase boundary area for electrochemical reaction.