Agusalim Juhari
Lecturer in Mathematics Education at Universitas Negeri Makassar, Indonesia

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Digital Mathematics Learning Environments for Enhancing Conceptual Understanding and Technological Pedagogical Competence among Pre-Service Mathematics Teachers: A Literature Review Agusalim Juhari
International Journal of Technology and Education Research Vol. 4 No. 02 (2026): International Journal of Technology and Education Research (IJETER)
Publisher : International journal of technology and education research

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.63922/ijeter.v4i02.4168

Abstract

The rapid development of digital technology has transformed mathematics learning environments by enabling dynamic visualization, interactive exploration, multiple representations, collaborative learning, and immediate feedback. In mathematics teacher education, digital learning environments are not only used to support students’ understanding of mathematical concepts but also to prepare pre-service teachers to integrate technology meaningfully into future teaching practices. This article aims to examine the role of digital mathematics learning environments in enhancing conceptual understanding and technological pedagogical competence among pre-service mathematics teachers. This study used a literature review approach by synthesizing relevant theoretical and empirical studies on digital mathematics learning environments, GeoGebra, technology-enhanced mathematics learning, digital learning ecosystems, conceptual understanding, and technological pedagogical content knowledge. The review was guided by four questions: what are the characteristics of digital mathematics learning environments, how do they contribute to conceptual understanding, how do they support technological pedagogical competence among pre-service mathematics teachers, and what challenges affect their implementation. The findings indicate that digital mathematics learning environments can support conceptual understanding through visualization, manipulation of mathematical objects, multiple representations, exploratory tasks, collaborative interaction, and feedback. In teacher education, such environments also strengthen technological pedagogical competence through technology-rich learning experiences, digital task design, microteaching, reflection, and TPACK development. However, their effectiveness depends on meaningful task design, teacher educator competence, infrastructure readiness, students’ digital adaptation, and assessment models that capture both conceptual and pedagogical dimensions. This review concludes that digital mathematics learning environments should be positioned as pedagogical ecosystems rather than merely as technological tools.
Developing Pre-Service Mathematics Teachers’ TPACK through Digital Learning Environments: A Literature Review Agusalim Juhari; Abdurahman Hamid
International Journal of Technology and Education Research Vol. 4 No. 02 (2026): International Journal of Technology and Education Research (IJETER)
Publisher : International journal of technology and education research

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.63922/ijeter.v4i02.4169

Abstract

The development of pre-service mathematics teachers’ competence in integrating technology has become a central issue in contemporary teacher education. One of the most widely used frameworks for understanding this competence is Technological Pedagogical Content Knowledge (TPACK), which refers to the integrated knowledge of technology, pedagogy, and subject matter. This article aims to review how digital learning environments contribute to the development of pre-service mathematics teachers’ TPACK. Using a narrative literature review approach, this article synthesizes studies published between 2010 and 2025 that discuss TPACK, mathematics teacher education, digital learning environments, dynamic mathematics software, virtual simulations, technology-based microteaching, collaborative task design, online and hybrid learning, and professional development. The review indicates that digital learning environments can strengthen TPACK when technology is not treated merely as a technical tool, but is embedded in pedagogical design and mathematical representation. TPACK development is more effective when pre-service teachers engage in authentic learning experiences, such as technology-based task design, digital microteaching, virtual simulation, collaborative lesson planning, feedback, reflection, and the use of dynamic mathematics software. However, several challenges remain, including infrastructure limitations, unequal access to digital tools, variation in digital literacy, limited institutional support, and the lack of longitudinal evidence on the sustainability of TPACK development in real teaching practice. This article argues that mathematics teacher education programs need to design digital learning environments that are structured, contextual, reflective, collaborative, and sustainable so that TPACK development moves beyond technical proficiency toward meaningful pedagogical competence.