24. Mathematics Education Research
Paper
Development of Students ' Research Skills through Small Mathematical Research Activities
Nurziya Uspanova, Gulzina Nagibova
Nazarbayev Intellectual School, Uralsk, Kazakhstan
Presenting Author: Uspanova, Nurziya;
Nagibova, Gulzina
Formation of a model of an inquisitive, intelligent, thoughtful, sociable, consistent, fair, caring, risky, harmonious, reflective student through the organization of research work in mathematics lessons. To show students the importance of organizing research work in mathematics lessons in educating a person with comprehensively developed high moral values, who is ready to apply the acquired knowledge in the process of continuing education in unfamiliar situations. The article discusses how students can develop their research skills through small research activities. The work of various scientists is analyzed, the results of jointly planned classes on the development of students ' motivation for learning and research skills are analyzed. In the course of organizing research work in action, effective points of joint planning of teachers were identified and outlined. As a result of the study, it was found that the compilation of problems related to real life in a practical direction develops the ability of thinking to synthesize, analyze.
Conducting meaningful research work in mathematics lessons is the basis for developing students ' deeper understanding of the subject and the ability to apply it in real life. The fact that students learn, Act and reflect in a repeated cycle can lead them from academic knowledge to practical insight and the development of its positive attitude to learning, as well as personal and social responsibility.
The purpose of the study: to study the logical abilities of students through a problematic learning approach
to increase interest in their work, to teach students to work consciously on themselves, as well as to achieve solid knowledge, high learning outcomes through this method of teaching. Research objectives: Definition of the theoretical, basis of problem-based learning in the scientific and methodological literature; - Consider ways to solve problems in the development of students ' thinking; - Pedagogical and psychological description of the level of development of students; Scientific forecast of the study: if the organized work is organized systematically, purposefully, it will be possible to develop students ' thinking through problem-based learning approaches.
A mathematical study is a long-term, open-ended study consisting of a set of questions, the answers of which are interconnected and mutually contribute to obtaining a solution. The problems are open-ended, unfinished, because students always come up with new questions based on their observations. Additional characteristics of student research include the following: Students use the same methods used in mathematical research. They work through data acquisition, visualization, abstractions, and proof cycles. Students communicate with each other through mathematical language: they describe their thoughts, write their judgments and predictions, use symbols, prove their conclusions, and study mathematics. If the study consists of class or group work, then students become a community of mathematicians, exchanging experience and complementing each other with questions, assumptions, theorems.
Influence of mathematical research work on the subject The student has a high memory and ability to concentrate, develops the ability to quickly complete a task in unfamiliar situations, and develops the skills of logical thinking, effective use of information. It is clearly seen that the student is more motivated in the learning process, the ability to identify and find an effective solution to the problem is improved, and he gets pleasure in solving it. The student has a high ability to think creatively, is able to identify complex patterns using mathematical approaches, such as mathematical language, developed creative thinking, and the ability to visualize tasks in space. Every research work shows that students can think critically, analyze and present something new, new ideas with energy, whether on their own or in a group. When we find mathematical patterns, we feel that real pleasure is experienced through emotion.
Methodology, Methods, Research Instruments or Sources UsedAccording to the statement of Artemenkova in the article "the role of a differentiated approach in the development of personality", "learning must somehow coincide with the level of development of the child – this is a well-established and repeatedly verified fact that cannot be empirically disputed." on the basis of this opinion, when analyzing with colleagues, we realized that the need to create conditions for learning and development depends on how students perceive information (audial, visual, kinesthetic). According to the work of Lebedeva, in addition to education, it is the acquisition by students of the skills of conducting research activities as a universal way of mastering the world around them. The General task is to find an answer to the question through interaction, cultural information between students, the result of which should be the formation of the worldview of students and the formation of a research position.
Based on the foregoing, we aimed to improve the skills of critical thinking, interpretation, research, choosing methods of active teaching and learning that cover the entire class. We organized the work by dividing it into small groups to increase the motivation of students to learn, taking into account the needs of all students. As a result of the Gardner test obtained from students, we were convinced of the need to divide them into groups according to the level of perception of information.
In accordance with the evaluation criteria, practical research work and tasks related to real life based on the jigsaw method not only develop students ' research skills, critical thinking skills, but are important for achieving the purpose of the lesson and evaluation criteria.
When summarizing the practical work, students were able to compare the data obtained with reference values. To explain to them the reasons for the difference between these data from each other, they compiled a list of evidence, and also analyzed what changes in the technique and equipment of the experiment allowed to obtain a more accurate result.
The use of assessment strategies developed students ' skills of preparation for work, skills of working with information, skills of induction (generalization), skills of deduction (transfer), skills of substantiating their point of view, skills of decision-making, the ability to see the benefits of communication in accordance with educational achievements.
Conclusions, Expected Outcomes or FindingsIn summarised, mathematical research the student engages in more mathematics, he improves his confidence in the form of mathematical contemplation and enthusiasm. Creativity, risk, decision-making, surprises, and achievements that are part of the study help students answer questions about the meaning of learning mathematics. They learn new techniques to be able to answer their questions.
Scientific practice requires the repeated use of technical skills in the process of searching for templates and testing assumptions. In the context of incentives and important issues, it is this repetition trend that leads to a deeper understanding and maintenance of mathematical skills. In the course of the research work, students create a close relationship between the retention of further acquired knowledge and the ideas that increase it.
The student will determine which side of the problem he will study and develop his mathematical vision through the skill of making a choice.
In the study of students, written mathematics and problem solving occupy a leading place.
It fosters the student's unwavering perseverance in achieving the goal and tolerance for perfection, as it is strengthened that they reach their goal by encouraging, encouraging and giving them the opportunity to think again in a few days or weeks.
In conclusion, the implementation of research work related to real life in a practical direction develops the ability of students to synthesize, analyze their thinking. This section led to an increase in the research abilities of students with a high concentration of attention.
We hope that the organization of research work will be very effective not only for the student, but also for the teacher to master the discipline and find a great application in the future.
We are ready to bring up the modern generation and realize the coming changes in education.
References1. Meier and Rishel (1998). Writing in the Teaching and Learning of Mathematics.
2. Sterrett (1990). Using Writing to Teach Mathematics.
3. Barkley E. F., Cross K. P., and Major C.H. (2005).Collaborative Learning Techniques.San Francisco, CA: Jossey-Bass.
4. Artemenkova I.V. (2004). The role of a differentiated approach in personality development. The known about the known.
5. Talyzina N.F. (2020). Development of research skills among students. Yekaterinburg.
6. Lebedeva O.V. (2019). Preparation of a physics teacher for the design and organization of educational and research activities of students.
7. Obukhov A.S. (2015). Development of students' research activities. 2nd edition. Moscow..
8. Bryzgalova S.I. (2003). Introduction to scientific and pedagogical research.
24. Mathematics Education Research
Paper
Math Choice as a Key for Finnish Academic Upper Secondary Students' Study Choices, School Performance, Later Educational Choices, and Well-Being
Sirkku Kupiainen, Risto Hotulainen
University of Helsinki, Finland
Presenting Author: Kupiainen, Sirkku
The gendered choice and role of mathematics in pre-tertiary education is maybe one of the most pertinent research topics in education literature (e.g., Ellison & Swanson, 2023; Else-Quest et al., 2010; Uerz et al, 2004; Van der Werfhorst et al., 2003). While Finnish girls outperform boys in mathematics in the comprehensive school, it seems that once they have a possibility to make educational choices after the comprehensive school, the interplay of the internal versus external frame of reference for academic self-concept (Marsh & Shavelson, 1985) sets in motion and leads girls away from math (see also Marsh, 1990; Marsh et al., 2015). In Finland, this has been reported in students’ choice both between the two tracks of the Finnish dual model of upper secondary education (academic vs. vocational), among the different vocational programs, and within the relatively open syllabus of academic upper secondary education (Kupiainen & Hotulainen, 2019). In the current presentation, we set to explore the interplay of students’ gender and math choice in the academic upper secondary education, and its relation to students’ later educational choices.
In the dual model of Finnish upper secondary education (academic and vocational tracks, 56 % vs. 44 % of the age cohort, respectively), ninth grade students have a right to choose among all programs across the country but entrance to academic track schools is based on students’ ninth grade GPA (grade point average). Reflecting girls’ better achievement, they form a majority among academic track students (56 %). Yet, reflecting a longstanding gender-imbalance in students’ attitude toward mathematics and despite Finnish girls outperforming boys in the OECD PISA study (e.g., Hiltunen et al., 2023) and their better grades in math in the comprehensive school (Kupiainen & Hotulainen, 2022, p. 140), there is a clear gender difference in students’ choice between the Basic and Advanced syllabi in mathematics at the upper secondary level after the comprehensive school where all students follow the same syllabus for all subjects (Kupiainen et al., 2018).
The context of the presentation is a recent study of the impact of the Finnish higher education student selection reform of 2018 on academic upper secondary students’ study choices and wellbeing. Despite the long tradition of the Finnish matriculation examination with separate exams for each subject, Finnish tertiary education student admission has traditionally relied on a combination of field-specific entrance examinations and matriculation examination results. In 2018, a reform decreed that half of students in all fields of study shall be accepted based solely on their matriculation examination results and the other half solely on an entrance examination. The main goal of the reform was to speed Finnish students’ slow transit from secondary to tertiary education as due to a backlog of older matriculates vying for a place, two thirds of new matriculates have been yearly left without a place in higher education. The reform was backed by research on the drawbacks of the earlier entrance examination-based student selection (Pekkarinen & Sarvimäki, 2016) and tied the credit awarded for each subject-specific exam to the number of courses covered by the exam. The reform raised vocal criticism, mainly for Advanced Mathematics bringing most credit with its biggest course-load even in fields where it might appear of less value. Yet, the only earlier study on students’ relative success in the matriculation examination showed that on average, students of Advanced Mathematics fared in all exams they included in their examination (average 5,6 exams) better than students sitting for the exam in Basic Mathematics or with no mathematics exam, also allowed in the Finnish system (Kupiainen et al. 2018).
Methodology, Methods, Research Instruments or Sources UsedWe set for the presentation two research questions:
RQ1 How do students who choose Advanced Mathematics differ from students who choose Basic Mathematics? Dimensions to be explored will be a) gender, b) previous school achievement, c) current school achievement, d) choice of and investment in other subjects, d) plans for future education, e) motivational profile, and f) wellbeing/burnout?
RQ2 How has the altered importance of matriculation examination results in higher education student admission affected upper secondary students’ choice of the subject-specific exams they choose for their matriculation examination, and how do students sitting for the Advanced vs. Basic Math exam (or not sitting for either) differ in their overall matriculation examination success?
The data for the present study come from a wider research project regarding the impact of the higher education student admission reform of 2018, comprising register data for the 204,760 matriculates of 2016–2022, and survey and register data on the 4,620 first, second and third-year upper secondary students who participated in the study in autumn 2022. In the current presentation, we use the matriculation data to investigate the impact of the reform on students’ choices of the exams they include in their matriculation examination, using gender, math choice and overall success as the main references for group comparisons. The survey data and the related register data on the participating students’ study achievement (9th grade GPA and their grades for the study courses passed before the cut point of October 2022) will allow a closer exploration of the way students’ choice between Basic and Advanced Mathematics is related to their interest and commitment to studies in the other subjects, their motivation (goal orientation and agency beliefs), and their wellbeing or lack of it (burn-out). Reflecting the research questions, we will mainly rely on descriptive methods with group-level comparisons using MANOVA with a possible use of structural equation modelling for confirmatory factor analysis and mediation studies.
Conclusions, Expected Outcomes or FindingsWhile 67 percent of boys choose the Advanced syllabus in mathematics, only 54 percent of girls make the same choice. Students’ choice between Basic and Advanced Mathematics, done after the first, common-to-all course on mathematics of the first period (à 7 weeks) of upper secondary studies was the strongest differentiator in almost all topics covered in the study, including not just students' learning and study success but also their well-being (Kupiainen et al. 2023). Students of Advanced Mathematics entered upper secondary education with a significantly higher GPA than students of Basic Math, and the situation remained almost the same in upper secondary school despite students being able to concentrate on subjects of their choice. The differences were statistically highly significant (p ≤ 0.001), with the choice of mathematics explaining 16-21 percent of the variation in students’ academic performance, varying slightly by duration of study (1st, 2nd and 3rd year students). Math choice also emerged as the clearest source for differences in students' future plans. The difference was most evident in students' intention to continue from upper secondary school to university.
Students of Advanced Math presented stronger mastery orientation than students of Basic Math and they reported less burnout (exhaustion, cynicism, reduced efficiency). The latter result is partially explained by gender difference in burnout but even among girls, students of Basic Math reported more burnout than students of Advanced Math.
The higher education student selection reform seems to have increased students’ readiness to include a math exam in their matriculation examination, with the growth centering on the exam of Advanced Math for boys and on Basic and Advanced math for girls. Despite the increase, students who sat for the Advanced Math exam outperformed other students in all exams, girls among them outperforming boys in all but Math, English, Physics and Chemistry.
ReferencesEllison, G., & Swanson, A. (2023). Dynamics of the gender gap in high math achievement. Journal of Human Resources, 58(5), 1679-1711.
Else-Quest, N. M., Hyde, J. S., & Linn, M. C. (2010). Cross-national patterns of gender differences in mathematics: a meta-analysis. Psychological bulletin, 136(1), 103.
Kupiainen, S. & Hotulainen R. (2022). Peruskoulun päättäminen ja toisen asteen opintojen aloittaminen. Teoksessa J. Hautamäki & I. Rämä (toim.), Oppimaan oppiminen Helsingissä. Pitkittäistutkimus peruskoulun ensimmäiseltä luokalta toiselle asteelle. Helsingin yliopiston Koulutuksen arviointikeskus HEAn raportit 1/2022, 129–160.
Kupiainen, S., Rämä, I., Heiskala, L., & Hotulainen, R. (2023). Valtioneuvoston selvitys- ja tutkimustoiminnan julkaisusarja 2023:44.
Marsh, H. W. (1990). The structure of academic self-concept: The Marsh/Shavelson model. Journal of Educational psychology, 82(4), 623.
Marsh, H. W., Abduljabbar, A. S., Parker, P. D., Morin, A. J., Abdelfattah, F., Nagengast, B., ... & Abu-Hilal, M. M. (2015). The internal/external frame of reference model of self-concept and achievement relations: Age-cohort and cross-cultural differences. American Educational Research Journal, 52(1), 168-202.
Marsh, H. W., & Shavelson, R. (1985). Self-concept: Its multifaceted, hierarchical structure. Educational psychologist, 20(3), 107-123.
Uerz, D., Dekkers, H. P. J. M., & Béguin, A. A. (2004). Mathematics and language skills and the choice of science subjects in secondary education. Educational Research and Evaluation, 10(2), 163-182.
Van de Werfhorst, H. G., Sullivan, A., & Cheung, S. Y. (2003). Social class, ability and choice of subject in secondary and tertiary education in Britain. British educational research journal, 29(1), 41-62
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