Volume/Issue :

Article type :

Case study

Page No :

55-62

Abstract :

This research presents one of many possibilities of how to check and repeat knowledge at the end of the school year and at the same time provide an answer to questions often asked by students who are disinterested in learning mathematics: "Where will we need it?" or "Why do we learn this?" To provide them with an answer and motivate them at the same time, this research focused on actively encouraging students to find the answers themselves and thus find the importance of learning mathematics. With a changed way of repeating and consolidating the material at the end of the school year, the aim of this research is to reduce the fear of mathematics and increase the motivation of students in the following year. Students, divided into groups, choose the topic or examples of the use of mathematical knowledge of the first year of secondary technical and professional education in everyday life, and thus shape the learning situation (LS). The goal of preparing the LS is for students to make sense of the subject matter with examples from everyday life. For the selected LS, they prepare a short story with tasks that they solve by calculation, prepare presentations and also, present the LS to the classmates. During the formation of the LS and the preparation of presentations, students are active (active learning methods: task search, knowledge of the subject matter, interviews, problem solving, use of mathematical applications, teamwork, problem solving…) and cooperate with each other. They are constantly developing more 21st century competencies (self-regulation, collaboration, problem solving) and digital competencies. With the formation of the LS, the world of mathematical knowledge gets a little closer to students, they lose their fear of mathematics and become more motivated.

Keywords :

learning situations, collaborative work, active learning methods, mathematics in everyday life, deviation from the established

References :

Aberšek, B., & Kordigel Aberšek, M. (2011). Does intelligent e-learning tools need more pedagogical methodology or ICT. Problems of Education in the 21st Century, 37, 9-17. http://www.scientiasocialis.lt/pec/node/633
EqsQest. (2017). Symolab. https://www.symbolab.com/
Joyce, A., & Dzoga, M. (2012, januar 1). Ingenious. Intel White Paper: Science, technology, engineering and mathematics education: Overcoming challenges in Europe. https://www.researchgate.net/publication/284023476_Intel_White_Paper_Science_technology_engineering_and_mathematics_education_-_overcoming_challenges_in_Europe
MIZŠ. (2007). Katalog znanja – matematika [Catalog of knowledge - mathematics]. http://portal.mss.edus.si/msswww/programi2009/programi/drugi_del/Ssi/KZ-IK/KZ_MAT_SSI_383_408.pdf
Mohorčič, A., Pustovrh, S., Škrlec, M., Kapus, H., Zmazek, V., Jericijo, O., & Rauter Repija, I. Vega 1. i-učbenik za matematiko v 1. letniku gimnazij [Vega 1st i-textbook for mathematics in the 1st year of high schools]. Slovenia. http://eucbeniki.sio.si/vega1/
Skubic Ermenc, K., Drobne, J., & Štefanc, D. (2012). Učne situacije v poklicnem in strokovnem izobraževanju [Learning situations in vocational and professional education]. Center za poklicno izobraževanje. http://www.cpi.si/files/cpi/userfiles/Publikacije/zbornik_Ucne-situacije_WEB.pdf
That Quiz. https://www.thatquiz.org/sl/
Wolfram. (2020). https://www.wolframalpha.com/

Cite as :

Žižek, D. (2021). Learning situations and ICT skills in mathematics in the first year of the secondary school for economics. Gamtamokslinis ugdymas / Natural Science Education, 18(1), 55-62. https://doi.org/10.48127/gu-nse/21.18.55