Fostering students' multivariational reasoning through technology-enhanced learning environments

被引:0
|
作者
Toprak, Zerrin [1 ]
Zengin, Yilmaz [2 ]
机构
[1] Dicle Univ, Inst Educ Sci, Diyarbakir, Turkiye
[2] Dicle Univ, Ziya Gokalp Fac Educ, Dept Math & Sci Educ, TR-21280 Diyarbakir, Turkiye
关键词
Multivariational reasoning; dynamic mathematics software; GeoGebra; technology-enhanced learning; ACODESA method; MODELING PROCESS; REAL-WORLD; VARIABLES; COVARIATION;
D O I
10.1080/0020739X.2025.2454608
中图分类号
G40 [教育学];
学科分类号
040101 ; 120403 ;
摘要
The study aimed to investigate students' multivariational reasoning regarding the concept of two-variable functions in a technology-enhanced learning environment. This study provided two main contributions. The first was to identify students' mental actions in multivariational reasoning through technology-enhanced learning environment, and the second was to how their mental actions evolve in this environment. The participants of the study involved 15 university students enrolled in a mathematics education programme. The data collection tools included audio and video recordings of students, screenshots, dynamic mathematics software GeoGebra files, and written products. The collected data were analysed based on the framework of mental actions of multivariational reasoning. As a result of the data analysis, it was found that the technology-enhanced learning environments encouraged students' multivariational reasoning by supporting their processes of creating graphs of two-variable functions, mathematically interpreting contour lines, and interpreting the intersection of a plane with a surface function in three-dimensional space. The use of GeoGebra tools in the stages of collaborative learning, scientific debate, and self-reflection (ACODESA method) promoted students' mental actions in reasoning about multivariation.
引用
收藏
页数:30
相关论文
共 50 条
  • [1] Disclosure of students’ mathematical reasoning through collaborative technology-enhanced learning environment
    Nazlı Aksu
    Yılmaz Zengin
    Education and Information Technologies, 2022, 27 : 1609 - 1634
  • [2] Disclosure of students' mathematical reasoning through collaborative technology-enhanced learning environment
    Aksu, Nazli
    Zengin, Yilmaz
    EDUCATION AND INFORMATION TECHNOLOGIES, 2022, 27 (02) : 1609 - 1634
  • [3] Fostering Creativity in Technology-Enhanced Learning
    Zizic, Anisija
    Granic, Andrina
    Sitin, Ivona
    2016 39TH INTERNATIONAL CONVENTION ON INFORMATION AND COMMUNICATION TECHNOLOGY, ELECTRONICS AND MICROELECTRONICS (MIPRO), 2016, : 841 - 846
  • [4] FOSTERING FOREIGN LANGUAGE LEARNING THROUGH TECHNOLOGY-ENHANCED INTERCULTURAL PROJECTS
    Chen, Jen Jun
    Yang, Shu Ching
    LANGUAGE LEARNING & TECHNOLOGY, 2014, 18 (01): : 57 - 75
  • [5] Scaffolding in technology-enhanced learning environments
    Sharma, Priya
    Hannafin, Michael J.
    INTERACTIVE LEARNING ENVIRONMENTS, 2007, 15 (01) : 27 - 46
  • [6] Technology-enhanced learning environments.
    Kern, R
    CANADIAN MODERN LANGUAGE REVIEW-REVUE CANADIENNE DES LANGUES VIVANTES, 2002, 58 (03): : 480 - 482
  • [7] PROCESS ORIENTATION IN TECHNOLOGY-ENHANCED LEARNING ENVIRONMENTS
    Holzhueter, Marianne
    Frosch-Wilke, Dirk
    EDULEARN12: 4TH INTERNATIONAL CONFERENCE ON EDUCATION AND NEW LEARNING TECHNOLOGIES, 2012, : 2662 - 2671
  • [8] Technology-enhanced constructivist learning environment for students
    Afanasenko, Olga V.
    Nizhenkovska, Iryna V.
    Holovchenko, Oksana I.
    Glushachenko, Olga O.
    PHARMACY EDUCATION, 2022, 22 (01): : 778 - 787
  • [9] Assuring best practice in technology-enhanced learning environments
    Keppell, Mike
    Suddaby, Gordon
    Hard, Natasha
    RESEARCH IN LEARNING TECHNOLOGY, 2015, 23 (01) : 1 - 13
  • [10] Technology-enhanced assessment visualization for smart learning environments
    Hiran Ferreira
    Guilherme P. de Oliveira
    Rafael Araújo
    Fabiano Dorça
    Renan Cattelan
    Smart Learning Environments, 6