Geometric Objects in the Final Grade of Middle Schools in B&H, Croatia

Geometric Objects in the Final Grade of Middle Schools in B&H, Croatia

IMVI ISSN (p) 2303-4882, ISSN 1840-4383 Open Mathematical Education Notes Vol. 8(2018), 47-59 www.imvibl.org / JOURNALS / IMVI OMEN DOI: 10.7251/OMEN1802047B Geometric Objects in the Final Grade of Middle Schools in B&H, Croatia, Macedonia, Montenegro, Serbia, and Turkey and Students' Progress of Geometrical Thinking which their Mathematical Curricula Enable Radoslav Božić Amor Hasić High school ‘Svetozar Marković’ Mixed High School, Novi Sad, Serbia Petnjica, Montenegro E-mail: [email protected] E-mail: [email protected] Biljana Jovanova Daniel A. Romano High school "Kosta Susinov" International Mathematical Virtual Institute, Radovish, Republic of Macedonia Banja Luka, Bosnia and Herzegovina E-mail: [email protected] Contact E-mail: [email protected] Abstract. The powerful development of geometric thinking among the students of the final grade of Middle School enables them to progress better through mathematical contents in the upcoming High School. In order to gain insight into possible levels of development of students’ geometric skills, we have examined the mathematics curricula of the final grades of Middle Schools in B&H, Croatia, Macedonia, Montenegro, Serbia and Turkey. Our intention was to gain insight into geometric contents planned in these teaching programs of the aforementioned socio-political communities. As a connecting thread of our observations, we offer the following conclusions regarding the previous research. All observed models have a significant common part that relates to the teaching and learning of geometric solids. In the case where this part of the curricula would be complemented by geometric transformations, it would then be possible to estimate that these curricula open the possibility of a full development of robust abilities among pupils. The authors think that although the quality of mathematics teachers’ work has a significant impact on the formation of geometric proficiencies and abilities of pupils in schools, the influence of policy makers of mathematics education and mathematical curricula designers is more significant. The authors are also very close to the suggestion that each of these societies should form a permanent team of experts for monitoring applications and further development of mathematical curricula. Keywords and phrases: curriculum, geometry, teaching, Middle School, B&H, Croatia, Macedonia, Montenegro, Serbia, Turkey. IMVI OMEN, 8(2)(2018) R. Božić, A. Hasić, B. Jovanova and D. A. Romano 1. Introduction The observed societies are not only geographically close to each other but they have a significant part of interrelated history, generally, and in mathematical education, in particular. The elementary school system in the observed societies is comprised of 8 (or 9) grades. Formally and declaratively they are divided into three triads, but the practice is realized in two forms: the Primary part (for children from 6/7 to 10 years of age) and the Middle part (for children from 10 to 15 years of age). In what follows we will use the term 'Middle School' to designate this second part of the Elementary school. One of the fundamental problems in the designing of the geometry components of the mathematics curriculum for the 8th grade in the Middle School is simply that the necessary geometric knowledge of students who complete the Elementary School should be rounded up and prepared them for the learning, understanding, and acceptance of significantly more cognitively demanding geometric knowledge in high school. This paper does not seek to resolve disagreements over the geometry curricula. Rather, the intention of the authors is to identify and review similarities and diversities concerning the design of the geometry curricula in the 8th grade in Middle Schools of the mentioned socio-political communities. These issues include the nature of geometry, the aims of geometry teaching, and the relative merits of different approaches to school geometry. The authors are close to the conclusion that the choice of geometric contents for the Middle School is extremely demanding since this geometric knowledge must have well-built links between geometric proficiencies acquired in the Primary school and geometric knowledge that should be mastered in the Secondary schools. Some of the most important goals of learning geometry at the Elementary School are the development of observational abilities, and skills to capture detail and analytics proficiency. In doing so, students begin to accept the existence of abstract concepts and develop skills of contemplative manipulations with abstract geometric objects. Add to this that students are becoming aware of the existence and importance of a number of logical principles they encounter when learning geometry such as, for example, 'the principle of excluded third' and 'the principle of non-contradiction'. Also, students become more aware of the notions of some important mathematical concepts such as the 'concept of unlimited' and the 'concept of infinity' as opposed to their earlier intuitive understanding of these abstract issues. Designing suitable geometry curriculum for Middle School grades are probably the most difficult task for those who are charged with constructing mathematics curricula. It is also probably the most enduring dilemma in mathematics curricula design and has probably been the subject of more inquiries and commentaries than any other area of the mathematics curricula. The purpose of this paper is not to try to resolve the range of disagreements about the observed geometry curricula of the abovementioned countries. Given the range of issues, such an endeavor is unlikely to be successful. The authors’ goal is more modest (and hopefully achievable). It is to identify and review some of the critical issues in the design of the geometry curriculum that relates to the potential for the development of a pupil's geometric thinking provided by such designed curricula. 2. Literature Review According to Jones [21], in the language of designing a geometry curriculum in the Middle School, for those who want to reduce the complexity of arguments, the question could be put like this. Is it better that student learners grasp in depth one approach to geometry or experience a wide range of approaches to geometry? For some, like for the authors, the answer to this question is obvious. It means a restoration of geometry in the Euclidean tradition as the dominant or even sole form of geometry in schools (e.g., [47]). The studies of the phenomenon 'geometrical thinking' and the associated 'development of the ability of spatial orientation' are the subject of continuing observations in the domain 'Research in Mathematical Education’. At each ERME conference (starting from the third), there is a working group interested in Geometric Thinking (e.g., [20], [24], [25], [33], [35], [46]). The authors estimate that the report [25] is very important in perceiving and overcoming the problems encountered by middle school teachers and researchers in geometric education at that grade level. Thus, for example, the text [26] provides an overview of the geometric surveys presented at ERME conferences (CERME 3 - CERME 10). In article [46], possible roots of students' wrong geometric reasoning were investigated with the aim of investigating the nature of the gap between teaching and learning geometry. Also, research texts related to geometry teaching to Middle school students and their geometry learning are often part of the annual reports of the ‘International Group 48 IMVI OMEN, 8(2)(2018) R. Božić, A. Hasić, B. Jovanova and D. A. Romano for the Psychology of Mathematics Education' (PME) as well as many others (e.g., [1], [2], [3], [27], [31], [32]). As an illustration, the report [2] can well be used. In that study, the authors investigated the relationship between students' cognitive styles (verbal deductive, spatial imagery, and object imagery) and performance on geometry problems. A very inspiring text is the article by [22] in which the authors sublimately exhibit the main trends in the research of the school geometry presented at PME conferences in the period 2005-2015. In relation to the aforementioned trends in research on the teaching of geometry, in the study [32], student's weaknesses in understanding geometric issues of geometric measurements is disclosed, angles and shapes, transformations and construction of shapes; ideas which can help in balancing the perceived obstacles have been offered. 'How should be proofs of theorems look like in Middle School geometry' - is the question that the study [31] attempted to answer. Observation of the problems encountered by students in the Balkans when learning geometric content is the subject of many studies (e.g., [13], [24], [40], [41]). What does this mean for teaching geometry in the Middle School if teachers insist that students recognize, understand, accept, and can reproduce some evidence in geometry? - is one of the crucial questions that researchers in geometric education have to ask themselves. The aim of the study [24] was to examine Middle School upper grades students’ performances when they were asked to identify, name, and draw geometrical objects. In [40], [41], the fourth author of the present paper exhibited some of his thoughts about the interdependence of mathematical education of future teachers of school geometry and components of the official school mathematics curricula. In the attempts to look at the general picture of contemporary view on the design of mathematical

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