Aug 2026· The International Journal of Science Mathematics and Technology Learning· 0 citations
Abstract
This qualitative case study formulates a theoretical model for understanding homotopies through mathematical argumentation among undergraduate mathematics students at a Peruvian university. The study addresses a documented gap in the literature: although mathematical argumentation and homotopy theory have been studied as separate fields, no prior research integrates them pedagogically at the university level. Data were collected through an open-question questionnaire and semi-structured interviews with five purposively selected participants and analyzed via thematic analysis (TA) using Atlas.ti v9, generating seventy-eight codes organized into four categories. The results reveal three argumentation components—initial data (hypotheses), axiomatic substrate, and conclusion (thesis)—and three epistemologically grounded thinking modes: synthetic-geometric (SG), analytic-topological (ATp), and analytic-algebraic (AAg), connected by conceptual articulators. A fourth emergent category—comprehension obstacles—documents specific epistemological errors (EPs) and conceptual difficulties in topological contexts. The proposed model was validated through expert judgment, obtaining Aiken’s V = 1.00 across all evaluated dimensions. The findings advance the understanding of mathematical argumentation in formal proof contexts and offer a theoretically grounded framework applicable to the teaching of advanced topology in higher education.
Deductive thinking is a fundamental strategy in mathematical problem-solving that enables individuals to derive logical conclusions based on known premises or general principles. This study aimed to develop a typology of students’ deductive thinking ability in solving routine mathematical proof problems, emphasizing ho...
M. Kholid, Masithoh Ummi Nur ‘Alimah, A. Hendriyanto et al.· JME (Journal of Mathematics...· 0 citations
Purpose: Conceptual understanding is fundamental in Complex Analysis because students must coordinate algebraic, geometric, and polar representations to construct advanced mathematical concepts. However, existing studies have primarily focused on identifying students' errors rather than explaining how misconceptions de...
R. Septianingsih, Arcat, Jajang Rahmatudin et al.· Journal of Research in Scien...· 0 citations
This study aims to analyze the role of Artificial Intelligence (AI) in bridging the conceptual understanding gap in calculus among civil engineering students, focusing on how AI mediates the relationship between theorems and formal definitions. A Systematic Literature Review (SLR) following the PRISMA 2020 protocol was...
Haris Jamaludin· Journal of Technology Inform...· 0 citations
This study employed an exploratory quantitative survey design to investigate high school students’ self-reported perceptions of mathematical argumentation in geometry learning. A 15-item questionnaire was developed on a five-point Likert scale with reference to Toulmin’s argumentation model, used as a conceptual backgr...
D. Nguyen, Le Viet Minh Triet, Loc Phu Nguyen et al.· Discover Education· 0 citations
Mathematical concepts are inherently inaccessible to learners except through their representations. Yet what does it mean to "represent" a mathematical object, and why does the movement between different forms of representation constitute such a persistent site of difficulty? This paper presents a sustained theoretical...
Dagui Wu, Yunyun Zhang· International Journal of Eng...· 0 citations
Mathematical proof is fundamental to mathematical reasoning and conceptual understanding, yet teaching proof remains challenging because learners must coordinate mathematical knowledge, logical reasoning, justification, and communication. This study investigated the challenges mathematics teachers encounter in addressi...
Rodrigo Paglomutan, Juliet Amar, Mary Ann Velasco et al.· International Journal of Int...· 0 citations
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